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154 Commits
iter ... master

Author SHA1 Message Date
afff8dd79f Final 2021 changes. 2022-11-30 18:56:34 -08:00
6cab94ba0b Day 22 part 2 stubbed out 2021-12-23 20:46:56 -08:00
987760422a Day 22 part 1 2021-12-23 20:34:13 -08:00
2400d34336 Day 21 some clippy cleanup 2021-12-23 19:44:52 -08:00
e4e00517f7 Disable broken day 21 part 2. 2021-12-23 19:43:32 -08:00
d56885bd14 Day 21 part 1 and non-functioning part 2. 2021-12-23 19:25:22 -08:00
b67eea9efe Day 20 part 2 2021-12-22 15:07:49 -08:00
fca64c2988 Day 20 part 1 w/ hack 2021-12-22 13:31:18 -08:00
6fbc06d4e1 advent: add helper image class (not currently used). 2021-12-22 12:46:30 -08:00
1b837b8965 Day 18 WIP, soo close. 2021-12-22 11:33:39 -08:00
a31a47b4b5 Day 18 add merge (aka +) capability. 2021-12-21 14:07:45 -08:00
247e4a89a5 Day 18 basic parse/Display implementations. 2021-12-21 14:07:17 -08:00
7a3a9c096a Address cargo clippy 2021-12-17 20:41:20 -08:00
b83d6f081d Day 17 part 2 2021-12-17 20:37:05 -08:00
2848a9ae1f Day 17 part 1 2021-12-17 19:40:54 -08:00
232b2687ca Create advent prelude and cleanup lint by using it. 2021-12-16 20:10:01 -08:00
1fb9a8416d Day 16 part 2 2021-12-16 20:00:41 -08:00
6ba8f3900c Day 16 part 1 rewrite into structured data 2021-12-16 19:28:08 -08:00
8739e5cc91 Day 16 part 1 2021-12-15 23:32:42 -08:00
c7a180dee3 Day 15 part 2 2021-12-15 11:24:42 -08:00
c16e3ad864 Day 15 part 1 2021-12-15 10:37:15 -08:00
2fdcf171b0 Day 13 part 2 2021-12-14 22:08:36 -08:00
1a427b7a1f Day 13 part 1 2021-12-14 22:07:40 -08:00
39cf326001 Day 14 fix part 1 and comment out part 2 2021-12-14 19:56:38 -08:00
0a2c2d13ce Day 14 part 2 that compiles forever 2021-12-14 19:47:05 -08:00
dbd597ad41 Day 14 part 1 2021-12-13 21:52:05 -08:00
9cdb935254 Some template changes to match common patterns. 2021-12-13 21:51:46 -08:00
e93f6d01ca Day 12 clippy lint. 2021-12-11 22:21:27 -08:00
b542304187 Day 12 part 2 2021-12-11 22:19:43 -08:00
b6dacf5b47 Day 12 part 1 solution. 2021-12-11 21:50:19 -08:00
b88d1d2a37 Day 11 clippy lint 2021-12-10 22:37:12 -08:00
197fc4dc2c Day 11 part 1 and 2 2021-12-10 22:35:59 -08:00
69a9bb276d Day 10 part 1 and 2 2021-12-09 22:22:17 -08:00
9cd8f5e4c8 Day 10 part 1 solution. 2021-12-09 22:21:29 -08:00
4e647d1bff Day 9 part 2, now works on final input data. 2021-12-09 18:01:08 -08:00
5000517fd0 Day 9 part 2, works for test data but stack overflows on real data. 2021-12-08 23:07:28 -08:00
35ef072d7f Day 9 part 1 solution 2021-12-08 21:55:55 -08:00
df51dcdaa8 Day 8 part 1 add a bunch of variations 2021-12-08 18:49:38 -08:00
b15a06e07c Day 8 part 2 perf improvements with s/HashSet/Vec/ and others 2021-12-08 18:16:15 -08:00
19ca505fde Day 8 part 2 perf improvements with Segment 2021-12-08 17:58:25 -08:00
19d9d47d4f Day 8 part 2 2021-12-07 22:46:43 -08:00
45ba7b3cb5 Day 8 part 1 2021-12-07 21:36:56 -08:00
b030505425 day[47]: lint cleanup. 2021-12-07 20:11:31 -08:00
0483ba1c77 Day 7 part 2 2021-12-07 13:56:01 -08:00
091f53b1fe Day 7 part 1 2021-12-07 11:30:25 -08:00
186fc8e581 Day 4 don't print out winning table. 2021-12-06 21:08:26 -08:00
1e34e0abea Day 4 try using bit comparisons to find bingo.
This is actually slower for some reason.
2021-12-06 20:42:24 -08:00
10fe6a570e Day 4 perf improvments v1 2021-12-06 20:01:48 -08:00
343707c63c Day 6 part 2 slightly faster over pre-rotate_left version. 2021-12-06 19:13:46 -08:00
60b77d5d3d day 6 part 2 Use rotate_left 2021-12-06 18:06:13 -08:00
6acaaf8b7a Day 6 part 2, put data on stack 2021-12-06 15:50:10 -08:00
44c0c16255 Day 6 part 2 2021-12-06 15:26:45 -08:00
e0bfb8b09d Day 6 part 1 2021-12-06 14:42:41 -08:00
5f6aded243 Update template. 2021-12-05 18:57:03 -08:00
45f780c1ca Address cargo clippy output. 2021-12-05 14:51:58 -08:00
5b65e8ec71 Day 5 part 2 2021-12-05 14:43:03 -08:00
ae10705a38 Day 5 part 1 2021-12-05 13:57:02 -08:00
9491fe5d9f Day 4 part 2 2021-12-04 22:00:55 -08:00
65eac56f1c Day 4 part 1 2021-12-04 21:47:57 -08:00
d5a07374fe Cleanup unused use statement. 2021-12-04 21:47:34 -08:00
4e37406c53 Put tests in sub module for template. 2021-12-04 21:46:49 -08:00
02ebdf3613 Add rustfmt.toml. 2021-12-04 10:49:08 -08:00
d2b1742d72 Day 3 part 2 2021-12-04 08:40:21 -08:00
53136289d5 Day 3 part 1 2021-12-03 14:59:04 -08:00
11744d1fe9 Use anyhow to make try operator feasible in parse and part#. 2021-12-01 21:34:51 -08:00
11c5dcaaaf Use anyhow to make ? availble 2021-12-01 21:24:46 -08:00
eca0b7d3a1 Day 2 part 2. 2021-12-01 21:18:11 -08:00
d4e5f1aea9 Day 2 part 1. 2021-12-01 21:13:45 -08:00
e5815a6784 Fix missing dependency in template. 2021-12-01 21:13:30 -08:00
ccc258bcb2 Stub implementation template. 2021-12-01 19:38:13 -08:00
76da21b3cc day1 part2 2021-11-30 22:00:25 -08:00
6de9b72fae day1 part1 2021-11-30 21:56:27 -08:00
6a4ec39446 Stub out initial 2021 runner. 2021-11-30 21:21:32 -08:00
586ab1680c Cleanup verbose debug output in release mode for day 21 2020-12-26 17:24:52 -08:00
2f36a0b5e8 Cleanup lint and make sure all tests run as appropriate with debug_assertions enable 2020-12-26 17:20:13 -08:00
992fcb01be Day 18 part 1 (fixed) 2020-12-26 15:19:23 -08:00
4e9e90c096 Day 18 part 2 solution (and broke part 1) 2020-12-26 15:15:03 -08:00
d935de1fb0 Day 20 part 2 solution. 2020-12-26 12:34:44 -08:00
5535aaf810 Day 25 part 2 text. 2020-12-26 08:28:24 -08:00
1c5032a5e5 Day 25 part 1 solution. 2020-12-26 08:25:30 -08:00
e3d9c13731 Day 23 hint for improving runtime. 2020-12-26 08:25:06 -08:00
e04081ac4a Day 22 lint cleanup. 2020-12-26 08:24:49 -08:00
68b7037d20 Day 24 part 2 solution. 2020-12-25 16:27:10 -08:00
5e92b3a7e0 Day 24 part 1 solution.
Broken day 23 part 2.
Moved debug_println into lib.rs.
2020-12-25 14:18:12 -08:00
25855b47a6 Day 23 part 1 solution 2020-12-23 20:47:52 -08:00
5900b4d3c6 Day 18 part 2 BROKEN. 2020-12-23 19:03:07 -08:00
5b10da61a4 Day 18 part 1 solution and comprehensive tests 2020-12-22 19:57:51 -08:00
48a55571c2 Day 22 part 2 solution. 2020-12-22 19:35:38 -08:00
67ee67ea42 Updating README.md 2020-12-22 16:32:29 -08:00
038e67d444 Day 22 part 2 doc comment 2020-12-22 15:36:32 -08:00
b7ff05ac27 Day 22 part 1 solution 2020-12-22 15:28:13 -08:00
b160a511b3 Day 21 cleanup debugging. 2020-12-22 14:57:48 -08:00
97d32e2588 Day 21 part 2 working. 2020-12-21 22:04:22 -08:00
9ef8a73b15 Day 21 part 1 & part 2, unit tests pass, but website rejects part 2 2020-12-21 22:00:54 -08:00
abac9fbfda Day 21 part 1 solution 2020-12-21 20:40:34 -08:00
1144eb6afc Day 20 part 2 BROKEN. 2020-12-21 17:21:43 -08:00
e8007abb76 Day 20 part 1 solution. 2020-12-20 10:12:02 -08:00
7bfe984659 Day 18 use large numeric type to prevent overflow. 2020-12-20 10:11:30 -08:00
37fdc75db4 Shitty day 19 part 2 answer 2020-12-19 15:17:44 -08:00
4dc6fb41f3 Day 19 part 1 solution. Disable broken day 18. 2020-12-19 11:54:18 -08:00
7ee762858c Day 18 part 1, STILL BROKEN. 2020-12-18 22:40:22 -08:00
3775e36fad Day 18 part 1 BROKEN 2020-12-18 17:01:39 -08:00
069788b2ee Day 17 part 2 solution 2020-12-18 11:52:12 -08:00
6d4cdcefe0 Day 17 part 1 solution. 2020-12-18 10:53:41 -08:00
de31fdf400 Day 15, comment out slow test. 2020-12-18 09:35:20 -08:00
4045d014f4 Updating README.md 2020-12-16 20:02:45 -08:00
fdace1fa25 Day 16 part 1 & 2 solutions. 2020-12-16 20:02:07 -08:00
bbfa622270 Updating README.md 2020-12-15 17:29:06 -08:00
05dc0c0ecc Day 15, remove debugging output 2020-12-15 17:28:38 -08:00
49319f1e21 Updating README.md 2020-12-15 17:28:21 -08:00
c6ec085ba9 Day 15 part 2 solution 2020-12-15 17:27:58 -08:00
7e7154bc7d Day 15 part 1 solution 2020-12-15 16:32:42 -08:00
c260afd7c6 Updating README.md 2020-12-15 08:03:14 -08:00
5299f9f66e Updating README.md 2020-12-15 07:55:29 -08:00
77cae3d106 Day 14 remove test assert. 2020-12-15 06:43:42 -08:00
93f918bee8 Day 13 part 2 solution 2020-12-14 20:06:30 -08:00
a383f91683 Day 14 part 2 solution. 2020-12-14 19:51:27 -08:00
d0146e18d4 Day 14 part 1 solution 2020-12-14 18:08:15 -08:00
78063d8bf6 Day 13 part 2 almost working? 2020-12-14 17:30:49 -08:00
29778566a4 Day 13 part 1 solution 2020-12-13 10:06:30 -08:00
f7ab64cc96 Day 12 part 2 solution 2020-12-12 15:08:47 -08:00
c4cc8a1c42 Day 12 part 1 solution 2020-12-12 12:48:08 -08:00
1a7666783d Day 11 part 2 solution 2020-12-12 11:57:25 -08:00
63850f082b Day 11 part 1 solution 2020-12-12 08:56:33 -08:00
58d479b9a6 Day 10 remove failed Graph experiment. 2020-12-11 19:37:31 -08:00
c0d2cb38a8 Day 10 part 2 solution. 2020-12-11 19:35:27 -08:00
b41163030a Day 10 part 1 solution 2020-12-10 17:15:40 -08:00
1af8eab8c2 Add (much slower) sort and binary search day 9 part 1 2020-12-09 18:04:50 -08:00
68d161f2f7 Address some TODOs. 2020-12-09 17:56:42 -08:00
5dc51a050f Remove unused use statement 2020-12-09 17:43:57 -08:00
3185eef130 Updating README.md 2020-12-09 17:43:32 -08:00
32d13861d9 Day 9 part 2 solution 2020-12-09 17:41:11 -08:00
99c79f84fe Day 9 part 1 solution 2020-12-09 16:41:40 -08:00
d3ded19a61 Updating README.md 2020-12-08 18:54:54 -08:00
868901c566 Updating README.md 2020-12-08 18:54:19 -08:00
f02033811d Day 8 part 2 solution 2020-12-08 18:52:33 -08:00
69f84f4819 Day 8 part 1 solution 2020-12-08 18:29:32 -08:00
26be0fb699 Updating README.md 2020-12-07 19:49:54 -08:00
991d1efc65 Updating README.md 2020-12-07 19:49:42 -08:00
498e8ea206 Day 7 part 1 solution. 2020-12-07 19:38:51 -08:00
7c01756821 Day 7 part 1 solution. 2020-12-07 19:05:17 -08:00
8e076c1134 Enable cargo run and use this to run all solutions. 2020-12-06 17:11:28 -08:00
4172592120 Implement faster day 6 part 2 2020-12-06 11:27:12 -08:00
99001d75b5 Ran 2020/scripts/update-readme.sh 2020-12-06 10:35:47 -08:00
ab1a4d6a4a Script for updating README.md 2020-12-06 10:35:32 -08:00
89e6dfe8be Day 6 part 2. 2020-12-06 10:27:07 -08:00
60a4950f24 Day 6 part 1 solution. 2020-12-06 09:49:37 -08:00
59f67f1c64 Day 5 part 1 glenng, recognize binary pattern. 2020-12-05 10:36:47 -08:00
89d59a6546 Day 5 part 2 and a mythical glenng implementation for part 1. 2020-12-05 09:07:02 -08:00
354a64fd23 Day 4 try using FromStr instead of From<&str>. 2020-12-05 08:43:30 -08:00
3e6d4e18e9 Day 5 part 1 solution. 2020-12-05 08:43:13 -08:00
38979959e6 Update w/ day 4 output. 2020-12-04 18:04:27 -08:00
c6194437c3 Day 4 part 2. 2020-12-04 17:51:04 -08:00
0ff14b83d3 Day 1 part 1 solution. 2020-12-04 17:10:46 -08:00
107 changed files with 35525 additions and 47 deletions

13
.gitignore vendored
View File

@ -1 +1,14 @@
**/target/
# Added by cargo
/target
# Added by cargo
#
# already existing elements were commented out
#/target
Cargo.lock

69
2020/Cargo.lock generated
View File

@ -7,6 +7,7 @@ dependencies = [
"anyhow",
"aoc-runner",
"aoc-runner-derive",
"pretty_assertions",
"regex",
]
@ -19,6 +20,15 @@ dependencies = [
"memchr",
]
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dependencies = [
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[[package]]
name = "anyhow"
version = "1.0.34"
@ -54,6 +64,22 @@ dependencies = [
"serde_json",
]
[[package]]
name = "ctor"
version = "0.1.16"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "7fbaabec2c953050352311293be5c6aba8e141ba19d6811862b232d6fd020484"
dependencies = [
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"syn",
]
[[package]]
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source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "524cbf6897b527295dff137cec09ecf3a05f4fddffd7dfcd1585403449e74198"
[[package]]
name = "itoa"
version = "0.4.6"
@ -72,6 +98,27 @@ version = "2.3.4"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "0ee1c47aaa256ecabcaea351eae4a9b01ef39ed810004e298d2511ed284b1525"
[[package]]
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source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "53cdc5b785b7a58c5aad8216b3dfa114df64b0b06ae6e1501cef91df2fbdf8f9"
dependencies = [
"winapi",
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[[package]]
name = "pretty_assertions"
version = "0.6.1"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "3f81e1644e1b54f5a68959a29aa86cde704219254669da328ecfdf6a1f09d427"
dependencies = [
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"ctor",
"difference",
"output_vt100",
]
[[package]]
name = "proc-macro2"
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@ -167,3 +214,25 @@ name = "unicode-xid"
version = "0.2.1"
source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "f7fe0bb3479651439c9112f72b6c505038574c9fbb575ed1bf3b797fa39dd564"
[[package]]
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source = "registry+https://github.com/rust-lang/crates.io-index"
checksum = "5c839a674fcd7a98952e593242ea400abe93992746761e38641405d28b00f419"
dependencies = [
"winapi-i686-pc-windows-gnu",
"winapi-x86_64-pc-windows-gnu",
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[[package]]
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View File

@ -11,3 +11,8 @@ anyhow = "1.0.34"
aoc-runner = "0.3.0"
aoc-runner-derive = "0.3.0"
regex = "1.4.2"
[dev-dependencies]
pretty_assertions = "0.6"
[profile.release]
debug = true

View File

@ -1,49 +1,236 @@
# Results
## Day 1
```
AOC 2020
Day 1 - Part 1 - binary : 1006875
generator: 12.539µs,
runner: 373ns
Advent of code 2020
Day 1 - Part 1 - binary: 1006875
generator: 21.403µs,
runner: 581ns
Day 1 - Part 1 - linear : 1006875
generator: 4.945µs,
runner: 7.727µs
Day 1 - Part 1 - linear: 1006875
generator: 8.431µs,
runner: 11.164µs
Day 1 - Part 1 - set : 1006875
generator: 16.721µs,
runner: 1.288µs
Day 1 - Part 1 - set: 1006875
generator: 22.51µs,
runner: 1.04µs
Day 1 - Part 2: 165026160
generator: 6.176µs,
runner: 1.320463ms
Day 2 - Part 1: 640
generator: 1.572384ms,
runner: 99.594µs
Day 2 - Part 1 - handrolled: 640
generator: 202.476µs,
runner: 106.704µs
Day 2 - Part 2: 472
generator: 1.341148ms,
runner: 10.37µs
Day 3 - Part 1: 148
generator: 35.027µs,
runner: 1.018µs
Day 3 - Part 2: 727923200
generator: 33.64µs,
runner: 4.379µs
Day 4 - Part 1: 239
generator: 351.073µs,
runner: 1.736µs
Day 4 - Part 2: 188
generator: 332.453µs,
runner: 42.199µs
Day 5 - Part 1 - glenng: 989
generator: 181ns,
runner: 77.639µs
Day 5 - Part 1 - wathiede: 989
generator: 83.219µs,
runner: 632ns
Day 5 - Part 2 - wathiede: 548
generator: 76.923µs,
runner: 28.274µs
Day 6 - Part 1: 6930
generator: 122ns,
runner: 548.722µs
Day 6 - Part 2: 3585
generator: 109ns,
runner: 1.786837ms
Day 6 - Part 2 - faster: 3585
generator: 119ns,
runner: 911.866µs
Day 7 - Part 1: 222
generator: 936.409µs,
runner: 181.642µs
Day 7 - Part 2: 13264
generator: 898.057µs,
runner: 4.034µs
Day 8 - Part 1: 1744
generator: 183ns,
runner: 38.058µs
Day 8 - Part 2: 1174
generator: 119ns,
runner: 144.217µs
Day 9 - Part 1: 1309761972
generator: 29.337µs,
runner: 40.825µs
Day 9 - Part 1 - sorted: 1309761972
generator: 26.371µs,
runner: 222.038µs
Day 9 - Part 2: 177989832
generator: 29.874µs,
runner: 119.825µs
Day 10 - Part 1: 1625
generator: 6.602µs,
runner: 528ns
Day 10 - Part 2: 3100448333024
generator: 4.893µs,
runner: 1.448µs
Day 11 - Part 1: 2338
generator: 67.172µs,
runner: 12.483103ms
Day 11 - Part 2: 2134
generator: 117.56µs,
runner: 47.514021ms
Day 12 - Part 1: 1838
generator: 81.477µs,
runner: 9.093µs
Day 12 - Part 2: 89936
generator: 55.605µs,
runner: 8.085µs
Day 13 - Part 1: 153
generator: 2.293µs,
runner: 384ns
Day 13 - Part 2: 471793476184394
generator: 2.142µs,
runner: 2.576µs
Day 14 - Part 1: 10717676595607
generator: 86ns,
runner: 117.882µs
Day 14 - Part 2: 3974538275659
generator: 155ns,
runner: 5.737865ms
Day 15 - Part 1: 929
generator: 145ns,
runner: 257.345µs
Day 15 - Part 2: 16671510
generator: 106ns,
runner: 2.520441045s
Day 16 - Part 1: 23115
generator: 268.255µs,
runner: 23.009µs
Day 16 - Part 2: 239727793813
generator: 214.632µs,
runner: 392.169µs
Day 17 - Part 1: 315
generator: 3.741µs,
runner: 2.863143ms
Day 17 - Part 2: 1520
generator: 2.332µs,
runner: 29.722289ms
Day 19 - Part 1: 178
generator: 1.706494ms,
runner: 228.465µs
Day 19 - Part 2: 346
generator: 50.489244ms,
runner: 9.837093ms
Day 21 - Part 1: 2595
generator: 314.271µs,
runner: 613.046µs
["sesame", "nuts"]: thvm ckqq qrsczjv zmb zrgzf jmdg hlmvqh *pnglkx *nfnzx *tjsdp *jkbqk *rpmqq *gzgvdh *rgdx *szsbj *xjdhk *zfml *ddbmq *mvnqdh *gsgmdn *dtlhh *rqqfnlc *bxv *nthhxn *hnmjfl *fkh *hkxcb *rpcdfph *flhfddq *qspfqb *rpmmv *jfqqgtl *xxfgvz *kltcm *xjrpr *vnfmc *xhmmt *zkzdrn *xgbvk *ngqh *djpsmd *bnzq *rbvdt *tfmgl *pjln
["sesame"]: thvm mrfxh ckqq hlmvqh zmb qrsczjv zrgzf *qchnn *dnpgcd *zfml *gsgmdn *frld *nfnzx *nqfc *xbpb *kltcm *ljmvpp *zntrfp *gzgvdh *rrbndl *pptgt *rknm *qsgb *mstc *zzldmh *nggcjr *bkd *zfsks *cxzkmr *tzjnvp *npbnj *lh *pfqxsxd *clqk *rpmmv *szsbj *mnvq *cnghsg *jdtzr *kfsfn *jxjqp *knqzf *lvjpp *qdpbx *xxfgvz *ngqh *jvvmcq *zmcj *dsmc *xhmmt
["eggs"]: hlmvqh qrsczjv thvm zrgzf ckqq jmdg mrfxh *klmjmz *clqk *pjln *lvjpp *tbm *rqqfnlc *gzgvdh *klx *sfk *bnzq *mhrm *vht *pjqdmpm *tfmgl *cxzkmr *ghr *rxrgtvs *rfh *rhrc *vnfmc *ljhn *fbcds *rkzhxmh *htllnq *xhmmt *rcr *dgrrm *xlzqfb *xlnn *vpgvm *zntrfp *pgqxp *xjrpr *vnmfg *vqrjn *thcs *mnvq *rczbvg *bkd *zqsc *ngqh *rpmqq *zmcj *cbbkfx *rpcdfph *jfqqgtl *mszc *tzjnvp *sdccxkt *rcvd *pcf *xzcdnr *jgtrnm *zfcvnj *dsmc *gjqfj *gtgrcf *nthhxn *jngghk *hnmjfl *qspfqb *bxv
["dairy", "peanuts", "eggs"]: mrfxh zrgzf zmb jmdg thvm ckqq hlmvqh *nthhxn *htllnq *pbn *qsgb *dvcfx *mstc *jngghk *xddkbd *dpfphd *zhghprj *rfh *ljmvpp *vtljml *pmtfmv *xxfgvz *crnfzr *xbpb *tshn *nqfc *kmsh *rknm *hkqp *pjqdmpm *pjln *ddbmq *bjvcg *zntrfp *vnfmc *qszmzsh *fhtsl *tjsdp *kfsfn *jkbqk *mnvq *dnpgcd *xzcdnr *xjrpr *rbvdt *vht *jxjqp *zzldmh *cnghsg *pzxj *jfqqgtl *kqzcj *lxr *glrc *dgrrm *cxzkmr *clqk *xjdhk *vpvj *lbfgp *klmjmz
["dairy"]: zrgzf thvm mrfxh zmb hlmvqh jmdg ckqq *rqqfnlc *vgp *tbm *tjsdp *tshn *zzldmh *vgjbgj *pptgt *xnfhq *pbn *rpmmv *dnpgcd *qszmzsh *rbvdt *nzlks *xddkbd *npbnj *lxr *szsbj *dtlhh *ljmvpp *xjzc *pjqdmpm *rknm *rrbndl *xhmmt *pjln *pfqxsxd *jdtzr *jnr *jkbqk *vht *vhcnpg *ddgdhg *pzxj *ljhn *xgbvk *qfkjsq *zhghprj *gzgvdh *xzcdnr *ddbmq *rcvd *lbfgp *mvnqdh *rfh *nggcjr *gjqfj *hrfmdk
["soy", "shellfish"]: jmdg ckqq qrsczjv thvm mrfxh hlmvqh zrgzf *cmnb *cnghsg *cxzkmr *vfkpj *pgb *xddkbd *qfvfzg *gzgvdh *bxv *zfml *clqk *pbn *nthhxn *rvchbn *xbpb *sfk *dtlhh *rqqfnlc *rhrc *djpsmd *qrftr *gjqfj *bjvcg *zntrfp *zlgztsbd *lbfgp *vnmfg *jkbqk *lvjpp *pfqxsxd *ljmvpp *mnvq *ljhn *fkh *ddrd *qmmt *rcr *vht *xgbvk *ddbmq *tbm *vhcnpg *srgnx *ngqh *mhrm *pptgt *glrc *rpmmv *kx *htllnq
["nuts", "dairy", "sesame"]: ckqq jmdg zmb thvm mrfxh zrgzf qrsczjv *fdf *tshn *zhghprj *xjzc *xxfgvz *nggcjr *hkqp *vgjbgj *hnmjfl *mstc *dmxhhd *rpmmv *jdtzr *klx *ngqh *gtgrcf *bjvcg *vgp *jgtrnm *ttxx *bcvmz *pgqxp *nfnzx *sjgx *zfcvnj *tzjnvp *qmmt *qdpbx *rhrc *gmc *zfsks *ljmvpp *gjqfj *fjgxv *zttx *lbskg *vnfmc *vfkpj *lxr *hkxcb *dln *xbpb *sfk *vpgvm *ljhn *rknm *rfh *mgxzl *thcs *jfqqgtl *bkd *sdccxkt *zzldmh *rcvd *qchnn *xhmmt *rkzhxmh *xgbvk *csfmx *gzgvdh *ncqdr *rxr *vtljml *lbfgp *pzxj *djpsmd *dpfphd *rczbvg *knnmm *xmjlsn
["nuts", "sesame"]: qrsczjv jmdg hlmvqh mrfxh ckqq thvm zmb *klx *hkqp *lqmfgp *mstc *mgxzl *cxfzhj *xxfgvz *jxjqp *ljhn *pcf *mrxg *bjvcg *vht *lbskg *tphtz *nldzpc *tjsdp *mszc *sfk *dln *ghr *mppf *lbfgp *zkzdrn *qdpbx *bnzq *qsgb *rrbndl *nggcjr *zttx *qjsbk *llgsg *srgnx *dbx *stcsp *rcr *zfml *jvvmcq *pptgt *gmc *fkh *xjdhk *pzxj *zntrfp *flhfddq *knqzf *ddrd *jmgt *fdf *thcs *lh *xmjlsn *kglr *pjqdmpm *kx *dpfphd *vqrjn *vhcnpg *rxrgtvs *pfqxsxd *nqfc *cbbkfx *dtlhh *qmmt *xlzqfb *rpmmv *jfqqgtl *gsgmdn *bcvmz *mnvq *fbcds *xjzc *gtgrcf
["soy"]: hlmvqh zmb qrsczjv zrgzf thvm ckqq jmdg *gzgvdh *vbqbkt *fjgxv *nggcjr *jvvmcq *pptgt *fmvvb *zqsc *rbvdt *llgsg *xddkbd *rfh *pjln *tzjnvp *glrc *rqqfnlc *zttx *rrbndl *qfkjsq *mppf *rxrgtvs *lvjpp *dtlhh *zfml *stcsp *zkzdrn *vtljml *qdpbx *fstgc *xlnn *sdccxkt *hkxcb *kltcm *xlzqfb *jfqqgtl *npbnj *bcvmz *rknm *ngqh *xbpb *rcr *kglr *dbx *xxfgvz *bjvcg *rpmmv *srgnx *gjqfj *tshn *gmc *vgp *dgrrm *ljhn *knnmm *qkgqv *mstc *pnglkx *flhfddq *tjsdp *zntrfp *vgjbgj *bkd
["wheat", "dairy"]: ckqq jmdg zmb thvm hlmvqh zrgzf mrfxh *qjsbk *fkh *xddkbd *fjgxv *lbfgp *rxr *tphtz *vhcnpg *klmjmz *pmtfmv *hrfmdk *dbx *fbcds *jnr *xxfgvz *pfqxsxd *qfvfzg *bxv *flhfddq *rknm *rpmqq *pjln *sdccxkt *pgb *klx *jdtzr *lxr *nthhxn *vnmfg *jgtrnm *nfnzx *zzldmh *ddbmq *nldzpc *tvqbhv *dznd *dnpgcd *cmnb *vpvj *sjgx *xjzc *hkxcb *szsbj *dcbk *pmvl *pjqdmpm *mhrm *rgdx *jfqqgtl *zttx *vtljml *cbbkfx *knqzf *mszc *jkbqk *xbpb *vgjbgj *pptgt *vfkpj *vqrjn *zhghprj *xnfhq *tshn *rcvd *xjdhk *djpsmd *rfh *glrc *rkzhxmh
["peanuts", "soy"]: ckqq jmdg qrsczjv hlmvqh thvm zrgzf zmb *mvnqdh *nqfc *bjvcg *zfcvnj *ljhn *hkqp *srgnx *zfsks *bxv *xbpb *rkzhxmh *cxfzhj *rpmqq *zdntns *dnpgcd *thcs *lvjpp *klx *jngghk *flhfddq *gmc *pjln *dcbk *cbbkfx *vbqbkt *qchnn *tshn *fhtsl *qmthj *jvvmcq *ncqdr *jmgt *csfmx *tzjnvp *rczbvg *rcr *rbvdt *gtgrcf *cnghsg *rxrgtvs
["shellfish", "eggs", "dairy"]: ckqq zrgzf qrsczjv thvm jmdg mrfxh hlmvqh *frld *mvnqdh *tphtz *bjvcg *xzcdnr *djpsmd *ttxx *dcbk *qdpbx *tshn *rczbvg *vpvj *qmmt *ddrd *dln *bxv *jxjqp *lh *mgxzl *ltvr *pbn *nggcjr *dsmc *llgsg *knnmm *pzxj *cnghsg *vnmfg *mhrm *xlnn *gjqfj *pptgt *jkbqk *htllnq *xnfhq *klx *jmgt *rxr *hnmjfl *lqmfgp *qrftr *mppf *sjgx *rvchbn *lvjpp *mstc *zqsc *gmc *kmsh *rpmmv *crnfzr *hrfmdk *kglr *cxzkmr *dvcfx
["nuts", "shellfish"]: jmdg mrfxh thvm qrsczjv zmb ckqq zrgzf *xjrpr *mjpt *cbbkfx *rpmqq *ljhn *vht *sdccxkt *ngqh *bnzq *jgtrnm *fmvvb *xxfgvz *jfqqgtl *tfmgl *bcvmz *pgqxp *crnfzr *xddkbd *zfsks *pzxj *tshn *fbcds *lbfgp *thcs *hkqp *gsgmdn *dvcfx *cnghsg *csfmx *vhqfz *rxr *bxv *xjdhk *zhghprj *dtlhh *qmthj *jxjqp *rczbvg *gmc *sfk *ttxx *ltvr *pnglkx *dnpgcd *qsgb *clqk *klmjmz *lh *rvchbn *pjln *knqzf *vnfmc *qspfqb *nthhxn *zqsc *mhrm *gzgvdh *ncqdr *ddrd *vqrjn
["dairy"]: zrgzf qrsczjv ckqq thvm mrfxh hlmvqh jmdg *rvchbn *vhcnpg *mstc *hkqp *bnzq *xbpb *fhtsl *fjgxv *ddgdhg *jfqqgtl *rpmqq *dpfphd *pcf *qrftr *ngqh *vht *dvcfx *dfrg *tphtz *mnvq *qjsbk *mvnqdh *zntrfp *xjzc *jmgt *xzcdnr *vnfmc *xddkbd *fkh *kmsh *xmjlsn *zfsks *bcvmz *ljhn *gmc *rrbndl *fmvvb *cxzkmr *lh *zdntns *pgb *xxfgvz *hrfmdk *dln *tvqbhv *cnghsg *vpgvm *mjpt *jdtzr *dgrrm *kglr *pgqxp *kqzcj *hkxcb *xgbvk *djpsmd *tshn *klmjmz *rfh *xlnn *bjvcg *qfkjsq *rkzhxmh *glrc *clqk *gjqfj *knqzf *ljmvpp *csfmx *rbvdt *zfcvnj *dsmc *fstgc
["sesame", "shellfish"]: mrfxh zmb hlmvqh qrsczjv thvm zrgzf ckqq *nthhxn *vnfmc *dsmc *vpvj *rhrc *zfcvnj *zdntns *qmthj *knnmm *rpmmv *dtlhh *qdpbx *zhghprj *xddkbd *rqqfnlc *dpfphd *xhmmt *dgrrm *pgqxp *gmc *flhfddq *zkzdrn *vhcnpg *mjpt *fbcds *ncqdr *pjln *zttx *hrfmdk *xlnn *dvcfx *fkh *mszc *klx *cmnb *zfml *mnvq *rcr *bjvcg *csfmx *xlzqfb
["eggs"]: hlmvqh jmdg ckqq zrgzf mrfxh thvm qrsczjv *xnfhq *lh *qdpbx *rpcdfph *qsgb *rpmqq *tjsdp *ljhn *gsgmdn *vfkpj *xlzqfb *qmmt *jmgt *dvcfx *bkd *pmvl *ngqh *sjgx *dpfphd *kfsfn *bjvcg *jkbqk *qrftr *mjpt *vnmfg *nldzpc *ncqdr *jvvmcq *pptgt *pjqdmpm *pjln *ddrd *csfmx *kglr *xgbvk *tzjnvp *bxv *htllnq *fstgc *zfcvnj *jxjqp *pbn *dsmc *kbtx *vqrjn *rqqfnlc *rxrgtvs *hnmjfl
["shellfish", "dairy"]: zrgzf hlmvqh mrfxh thvm jmdg qrsczjv ckqq *mvnqdh *klx *rbvdt *kx *qmthj *hrfmdk *bcvmz *fhtsl *xxfgvz *pmvl *csfmx *hkxcb *rpmqq *vpvj *jmgt *vbqbkt *lxr *zhghprj *kglr *dpfphd *xzcdnr *mszc *vgp *dvcfx *gzgvdh *ncqdr *mppf *nldzpc *djpsmd *pnglkx *lqmfgp *sjgx *jfqqgtl *dln *vhcnpg *npbnj *cmnb *hnmjfl *kfsfn *vtljml *qspfqb *xlzqfb *dcbk *jngghk *lh *jxjqp *rxr *jdtzr *qrftr *fbcds *mrxg *zzldmh *qfvfzg *dtlhh *hkqp *dsmc *qdpbx *cxzkmr *tfmgl *xjrpr *pjqdmpm *rczbvg *rcvd *lbfgp *qszmzsh *glrc *qkgqv *tvqbhv *fkh *rknm *zntrfp *cbbkfx
["nuts"]: zmb thvm qrsczjv zrgzf ckqq jmdg hlmvqh *zqsc *sfk *lvjpp *ddgdhg *qspfqb *dmxhhd *zzldmh *xzcdnr *xjdhk *dznd *qfvfzg *ljhn *ghr *bcvmz *frld *pnglkx *fhtsl *srgnx *jfqqgtl *fdf *vhqfz *qsgb *jkbqk *xxfgvz *pjqdmpm *rpmqq *fkh *crnfzr *mjpt *cnghsg *qrftr *xddkbd *rkzhxmh *pfqxsxd *mhrm *gtgrcf *fmvvb *tvqbhv *dgrrm *xbpb *qmthj *gjqfj *kqzcj *tshn *qkgqv *vfkpj *kmsh *pgqxp *ddrd *glrc *xgbvk *hrfmdk *rgdx *bnzq *knnmm *qchnn *vnmfg *ncqdr *qfkjsq *pmtfmv *xnfhq *sjgx *cbbkfx *stcsp *rbvdt *mstc *gzgvdh *kglr *dsmc *rrbndl *xjzc *rpcdfph
["dairy", "wheat", "eggs"]: jmdg zmb hlmvqh qrsczjv thvm ckqq zrgzf *rbvdt *zkzdrn *hnmjfl *gmc *pgqxp *lqmfgp *knqzf *xbpb *fmvvb *bkd *dgrrm *vgjbgj *dcbk *ttxx *dtlhh *vpgvm *xlnn *jgtrnm *dpfphd *xzcdnr *jngghk *qmmt *flhfddq *gzgvdh *crnfzr *qszmzsh *xlzqfb *dfrg *qspfqb *qmthj *rpcdfph *frld *zqsc *xjdhk *dmxhhd *ljhn *qchnn *bnzq *kltcm *gtgrcf *mszc *zhghprj *rhrc *csfmx *mrxg *klmjmz *lbskg *pzxj *nggcjr *nthhxn *nldzpc *rpmqq *dbx *mhrm *xjzc
["sesame"]: jmdg zmb thvm qrsczjv mrfxh hlmvqh ckqq *lh *sfk *jvvmcq *szsbj *fmvvb *xxfgvz *sjgx *jnr *vqrjn *gmc *cnghsg *qsgb *mppf *jfqqgtl *fjgxv *vbqbkt *zqsc *xgbvk *pgqxp *nqfc *jmgt *rfh *xlnn *rhrc *nfnzx *rpcdfph *qszmzsh *kglr *xnfhq *tbm *zzldmh *rcvd *pmvl *kqzcj *hnmjfl *nggcjr *qchnn *zmcj *rvchbn *fdf *xmjlsn *mnvq *mgxzl *rkzhxmh *bxv *ngqh *xlzqfb *gjqfj *sdccxkt *clqk *cmnb *rbvdt *jkbqk *dpfphd *kltcm *jngghk *mszc
["dairy"]: thvm mrfxh zmb ckqq zrgzf hlmvqh qrsczjv *zfcvnj *mvnqdh *gjqfj *htllnq *nggcjr *vtljml *qrftr *fstgc *xjrpr *dvcfx *klmjmz *qjsbk *rcvd *hrfmdk *rczbvg *mjpt *ncqdr *kbtx *nqfc *xxfgvz *xlzqfb *jkbqk *jmgt *rxrgtvs *qspfqb *rhrc *qmthj *mszc *ghr *fmvvb *cxfzhj *lqmfgp *vfkpj *tzjnvp *mhrm *vpvj *pgqxp *ngqh *xlnn *xnfhq *tbm *zqsc *jvvmcq *rvchbn *lxr *vgp *cmnb *pjqdmpm
["wheat"]: mrfxh zrgzf jmdg thvm hlmvqh qrsczjv zmb *qfvfzg *ngqh *rhrc *nthhxn *mvnqdh *rcr *knnmm *zmcj *nfnzx *stcsp *nzlks *qdpbx *kfsfn *nldzpc *cxzkmr *fkh *vpvj *llgsg *pgb *cmnb *ncqdr *qchnn *rknm *xjzc *zntrfp *mstc *clqk *gsgmdn *jnr *ljhn *mppf *hkqp *xlnn *xgbvk *csfmx *rpmmv *fmvvb *mjpt *zlgztsbd *dtlhh *dln *bnzq *klmjmz *tfmgl *vgp *qmmt *kglr *dbx *gzgvdh *rcvd *kmsh *rgdx *kqzcj *ttxx *tzjnvp *qmthj *zfsks *lh *vhcnpg *pgqxp *zhghprj *vht *rxr *vbqbkt *pcf *gtgrcf *zzldmh *dvcfx
["dairy", "wheat", "peanuts"]: zrgzf mrfxh hlmvqh zmb ckqq thvm qrsczjv *vfkpj *kbtx *qkgqv *bkd *srgnx *rcr *zdntns *tjsdp *kfsfn *rhrc *mstc *vtljml *zlgztsbd *rbvdt *glrc *qfvfzg *rkzhxmh *ddbmq *pbn *flhfddq *dfrg *kglr *clqk *rxrgtvs *cxzkmr *ddgdhg *cmnb *rpmmv *dln *zttx *pjln *pjqdmpm *jmgt *qdpbx *rcvd *rrbndl *vbqbkt *xmjlsn *lh *xhmmt *qmthj *nzlks *pgb *xzcdnr *mrxg *xgbvk *fkh *vgp *rqqfnlc *gjqfj *gsgmdn *tbm *szsbj *bxv *lxr *cnghsg *jfqqgtl *dbx *pmtfmv *lvjpp *xjzc *xlnn *dtlhh *dsmc *vnfmc *zkzdrn *ghr *fhtsl
["dairy", "sesame"]: zmb jmdg hlmvqh thvm ckqq qrsczjv mrfxh *nldzpc *pbn *rxr *vgp *pgqxp *zfsks *vfkpj *tvqbhv *qmmt *pjln *qfkjsq *hnmjfl *mrxg *dln *nqfc *lbfgp *rcr *kfsfn *vtljml *rxrgtvs *tbm *dsmc *hkqp *lh *jngghk *vbqbkt *fbcds *clqk *pjqdmpm *mppf *tzjnvp *xhmmt *csfmx *rpcdfph *sdccxkt *kbtx *knqzf *rkzhxmh *mszc *ttxx *klx *mnvq
["wheat", "peanuts"]: ckqq hlmvqh zmb zrgzf mrfxh jmdg qrsczjv *rgdx *tfmgl *gmc *fstgc *ltvr *pnglkx *kglr *hkqp *ddgdhg *qfkjsq *xzcdnr *jnr *xxfgvz *zhghprj *ghr *pfqxsxd *ljmvpp *cmnb *nldzpc *dznd *xlnn *lh *zfcvnj *dcbk *kmsh *xjrpr *qjsbk *nzlks *gtgrcf *kfsfn *dpfphd *rqqfnlc *mppf *zzldmh *thcs *cbbkfx *jmgt *rcr *pjln *jxjqp *fmvvb *pmvl *mgxzl *knqzf *rbvdt *gzgvdh *nqfc *vnmfg *qszmzsh *tjsdp *ljhn *qrftr *ddbmq *bkd *fbcds
["peanuts"]: mrfxh zrgzf hlmvqh thvm zmb qrsczjv jmdg *clqk *rpmmv *rkzhxmh *pbn *pmvl *hkxcb *mvnqdh *kbtx *tzjnvp *ncqdr *kmsh *dcbk *qchnn *bkd *kqzcj *cmnb *mjpt *knnmm *pzxj *frld *gsgmdn *pfqxsxd *ltvr *lqmfgp *fkh *rbvdt *vgjbgj *nldzpc *jgtrnm *dbx *qrftr *zdntns *lbskg *rpcdfph *djpsmd *vbqbkt *dsmc *jdtzr *qmthj *hnmjfl *sfk *mppf *fmvvb *rcr *xmjlsn *csfmx *dln *vqrjn *xbpb *stcsp *fdf *rxrgtvs *mstc *ljhn *npbnj *thcs *ddbmq *knqzf *dgrrm *rqqfnlc *mszc *jnr *lbfgp *qsgb *dtlhh *pgb *bcvmz *qszmzsh *rfh *gjqfj *xlzqfb *rxr
["soy", "wheat", "eggs"]: thvm zrgzf jmdg zmb ckqq hlmvqh mrfxh *clqk *csfmx *lvjpp *kqzcj *zntrfp *dcbk *ghr *vtljml *pfqxsxd *pjqdmpm *jgtrnm *flhfddq *zzldmh *llgsg *nthhxn *mjpt *pjln *dznd *mnvq *bjvcg *nfnzx *tzjnvp *vgp *dtlhh *qmmt *rpmmv *zfcvnj *xzcdnr *tbm *dbx *bxv *cxzkmr *tfmgl *mszc *ttxx *qkgqv *qjsbk *pgqxp *zfml *mhrm *vpvj *jdtzr *mgxzl *tvqbhv *qfvfzg *vhcnpg *lbskg *lqmfgp *cnghsg *rcvd *hnmjfl *zhghprj *xjrpr *xxfgvz *dln *gtgrcf *sdccxkt *kx *qspfqb *jfqqgtl *pptgt *dmxhhd *rpcdfph *fstgc *rcr *fmvvb *ljmvpp *mrxg *gmc *pgb *kmsh *cmnb
["peanuts", "eggs", "nuts"]: hlmvqh qrsczjv ckqq zrgzf zmb jmdg mrfxh *klx *nggcjr *xjrpr *zdntns *kltcm *vhcnpg *xlnn *kqzcj *dnpgcd *vht *rpmmv *bnzq *hnmjfl *lbskg *fdf *bkd *dgrrm *rvchbn *mgxzl *pgb *jdtzr *dcbk *qszmzsh *rpmqq *hrfmdk *qrftr *dpfphd *lxr *ngqh *xddkbd *tbm *vqrjn *qchnn *vpvj *mstc *pbn *jxjqp *jgtrnm *tfmgl *rqqfnlc *xmjlsn *rxr *pmtfmv *zmcj *zfsks *zqsc *crnfzr *fbcds *xgbvk *hkxcb *gmc *nldzpc *nfnzx *xnfhq
["dairy", "sesame", "eggs"]: thvm zmb jmdg mrfxh zrgzf ckqq hlmvqh *csfmx *zzldmh *dcbk *fdf *rhrc *fjgxv *qchnn *cxzkmr *qmthj *crnfzr *nqfc *zmcj *mhrm *ltvr *sdccxkt *flhfddq *cbbkfx *cmnb *qdpbx *xmjlsn *fhtsl *knqzf *bxv *nggcjr *vnmfg *cxfzhj *jdtzr *pnglkx *lxr *kmsh *vgjbgj *dln *mppf *gzgvdh *rpmmv *zntrfp *pgqxp *zfml *vnfmc *vht *pmvl *xlzqfb *rxrgtvs *kltcm *pzxj *dsmc *dtlhh *hrfmdk *qmmt *dnpgcd *bjvcg *gsgmdn *cnghsg *xhmmt *gmc *ttxx *qjsbk *fkh *vhqfz *xxfgvz
["peanuts"]: ckqq jmdg mrfxh zmb hlmvqh thvm zrgzf *jmgt *mppf *ttxx *dsmc *xnfhq *bxv *kglr *bcvmz *dfrg *jnr *mnvq *ngqh *sfk *fdf *xhmmt *fjgxv *zfcvnj *rczbvg *cmnb *xjrpr *szsbj *dvcfx *gtgrcf *knqzf *pjln *lbfgp *vnmfg *jdtzr *mhrm *fstgc *tbm *djpsmd *pnglkx *qkgqv *vfkpj *hkxcb *qfkjsq *pgqxp *xzcdnr *nfnzx *npbnj *rbvdt *jfqqgtl *qfvfzg *jvvmcq *hnmjfl *rgdx *gjqfj *zhghprj *kqzcj *rcr *tvqbhv *tshn
["dairy", "sesame"]: qrsczjv zrgzf thvm ckqq hlmvqh mrfxh zmb *rknm *lvjpp *cnghsg *sdccxkt *rcvd *rxrgtvs *stcsp *fstgc *ttxx *pmvl *rpcdfph *dznd *pptgt *mstc *rpmmv *fdf *knnmm *jnr *bjvcg *mnvq *qdpbx *zfml *rqqfnlc *zqsc *zhghprj *mgxzl *qmmt *fkh *rxr *dsmc *lbskg *sfk *xhmmt *kqzcj *vfkpj *mhrm *pcf *jmgt *ljmvpp *jfqqgtl *szsbj *xjrpr *vnfmc *qszmzsh *dbx *mszc *xlnn *qrftr *qchnn *mjpt *zttx *ddgdhg *gmc *djpsmd *zfcvnj *dln *qkgqv *rcr *dnpgcd *tzjnvp *hkxcb *zmcj *lxr *bcvmz *fhtsl *vnmfg *vpgvm
["sesame", "dairy", "shellfish"]: jmdg thvm mrfxh zmb ckqq qrsczjv zrgzf *rgdx *cmnb *fstgc *pfqxsxd *ncqdr *dmxhhd *glrc *xjrpr *rkzhxmh *fhtsl *hkxcb *pmtfmv *zfsks *knnmm *pgb *vnmfg *thcs *dfrg *ddbmq *clqk *zntrfp *nthhxn *xjzc *dgrrm *lvjpp *rpmmv *vht *lh *jfqqgtl *vgp *mszc *rczbvg *jnr *jngghk *xhmmt *vhqfz *bcvmz *tjsdp *bkd *xlzqfb *xddkbd *pmvl *ddgdhg *djpsmd *ttxx *zfcvnj *mjpt *nldzpc *qrftr *kx *xnfhq *fjgxv *jmgt *ljhn *mrxg *pbn *sdccxkt *rxrgtvs *dln *dpfphd *tbm *rfh *tvqbhv
["eggs"]: zmb thvm jmdg hlmvqh mrfxh zrgzf ckqq *rczbvg *cxfzhj *lxr *mgxzl *hkxcb *kbtx *jvvmcq *pmtfmv *jfqqgtl *jxjqp *mszc *rknm *vfkpj *qmmt *ltvr *cnghsg *pjln *gzgvdh *szsbj *pgb *dcbk *lvjpp *qchnn *bcvmz *sdccxkt *llgsg *xgbvk *mrxg *ghr *zhghprj *hkqp *thcs *zzldmh *frld *gtgrcf *pnglkx *clqk *kglr *xhmmt *hnmjfl *qjsbk *qfvfzg *dnpgcd *dbx *djpsmd *qrftr *rgdx *tvqbhv *ncqdr
["shellfish"]: zmb zrgzf jmdg hlmvqh qrsczjv mrfxh ckqq *pmvl *rxrgtvs *mvnqdh *dznd *srgnx *qmmt *pgb *dgrrm *xjdhk *klx *rcvd *cnghsg *ttxx *hrfmdk *qspfqb *pfqxsxd *fmvvb *pzxj *sfk *rbvdt *nggcjr *zqsc *npbnj *kglr *xddkbd *lbskg *lqmfgp *mrxg *zfml *rkzhxmh *jfqqgtl *vgjbgj *rpmmv *tphtz *mszc *dln *zfcvnj *vpgvm *tzjnvp *rhrc *nldzpc *rknm *tshn *jgtrnm *mppf *fjgxv *ddgdhg *vpvj *fbcds
["nuts", "sesame"]: jmdg thvm mrfxh zmb ckqq zrgzf qrsczjv *xlzqfb *nthhxn *dln *rczbvg *vgp *cbbkfx *gsgmdn *jvvmcq *glrc *klmjmz *stcsp *bcvmz *dbx *vpvj *cmnb *sjgx *rfh *rrbndl *mgxzl *jnr *rhrc *xlnn *mhrm *bxv *qrftr *lvjpp *fjgxv *kglr *cxfzhj *pptgt *ghr *kbtx *pnglkx *qjsbk *jfqqgtl *fstgc *dznd *qszmzsh *jgtrnm *tjsdp *klx *pjln *vgjbgj *vbqbkt *zkzdrn *sfk *vhqfz *hrfmdk *kltcm *vnfmc *zqsc *xhmmt *knnmm *qfvfzg *xjrpr *nqfc *jkbqk
["shellfish", "peanuts"]: ckqq zmb thvm mrfxh hlmvqh zrgzf qrsczjv *jgtrnm *bxv *fbcds *dznd *bkd *ttxx *rpmqq *pmvl *dtlhh *xjdhk *zdntns *knnmm *vqrjn *dsmc *lqmfgp *ltvr *jfqqgtl *mszc *xhmmt *szsbj *crnfzr *fkh *rbvdt *pjqdmpm *nggcjr *qrftr *bcvmz *qmmt *srgnx *xddkbd *rvchbn *cmnb *pptgt *xjzc *llgsg *rxr *bnzq *gsgmdn *zzldmh *rcvd *dgrrm *zfsks *qsgb *tvqbhv *zkzdrn *nzlks *lh *klmjmz *rxrgtvs *kqzcj *mnvq *ngqh *rczbvg *tshn *tjsdp *pcf *fdf *rfh *pnglkx *hkqp *jkbqk *sdccxkt *fstgc *vpvj *ddbmq *zttx *xlzqfb *qfvfzg *frld *zlgztsbd *xnfhq *pfqxsxd *cxfzhj *cxzkmr *tphtz *clqk
["nuts"]: zrgzf thvm hlmvqh qrsczjv mrfxh ckqq jmdg *hrfmdk *nthhxn *lh *rbvdt *qdpbx *mhrm *vhqfz *lqmfgp *qjsbk *vgp *qfvfzg *szsbj *nldzpc *vpgvm *sdccxkt *dgrrm *tfmgl *zdntns *ddgdhg *zfsks *zmcj *pnglkx *ncqdr *sfk *rqqfnlc *vht *mstc *pmvl *cmnb *gmc *thcs *bjvcg *nzlks *klx *jfqqgtl *fkh *ghr *ddbmq *htllnq *xlnn *kglr
["eggs", "nuts", "dairy"]: mrfxh qrsczjv hlmvqh jmdg thvm zrgzf zmb *fkh *knqzf *tvqbhv *hkqp *nqfc *mvnqdh *xxfgvz *gzgvdh *vnfmc *qrftr *ngqh *cxzkmr *mjpt *dvcfx *zmcj *xddkbd *clqk *rvchbn *dsmc *xjzc *pfqxsxd *dfrg *qmmt *mhrm *flhfddq *rrbndl *xnfhq *dznd *frld *jnr *djpsmd *qjsbk *ddbmq *qchnn *pnglkx *dtlhh *zhghprj *fhtsl *vtljml *nzlks *qszmzsh *lqmfgp *pbn *cmnb *rpcdfph *kx *qkgqv *tshn *zlgztsbd *xlnn
["eggs"]: mrfxh zrgzf thvm qrsczjv jmdg zmb hlmvqh *gsgmdn *zqsc *cxzkmr *xlnn *htllnq *vbqbkt *pgb *pnglkx *tphtz *jmgt *qkgqv *pjqdmpm *glrc *sdccxkt *rbvdt *vht *pzxj *fstgc *bcvmz *mjpt *dvcfx *vpvj *ljmvpp *pfqxsxd *tshn *zmcj *qmmt *pcf *dpfphd *xxfgvz *jxjqp *rczbvg *mgxzl *fjgxv *hnmjfl *rkzhxmh *cnghsg *zfml *gjqfj *tbm *lh *mppf *dcbk *zntrfp *dbx *jvvmcq *szsbj *pjln *xhmmt *rcr *nthhxn *kx *fmvvb *xzcdnr *klx *rpcdfph *djpsmd *jdtzr *mnvq *bjvcg *mrxg
["peanuts", "eggs", "soy"]: thvm mrfxh zmb hlmvqh jmdg ckqq qrsczjv *vqrjn *rhrc *pzxj *pjqdmpm *tshn *pjln *nggcjr *ljhn *fkh *qchnn *kfsfn *vgjbgj *jmgt *qkgqv *stcsp *knnmm *dznd *pgb *csfmx *fmvvb *ltvr *rknm *rpcdfph *qfvfzg *zfcvnj *clqk *kx *ghr *rpmmv *vbqbkt *tfmgl *dfrg *lxr *hrfmdk *vpgvm *zlgztsbd *rczbvg *tvqbhv *jnr *qjsbk *qfkjsq *xxfgvz *klx *dnpgcd *kbtx *flhfddq *jfqqgtl *ddrd *xgbvk *rqqfnlc *bnzq *mnvq *ncqdr *dln *qdpbx *kltcm *mppf *zttx *dbx *pmtfmv *klmjmz *vnmfg *pgqxp *nthhxn *crnfzr *dmxhhd *xhmmt *rgdx *mvnqdh *gsgmdn *nzlks *xzcdnr *fbcds *djpsmd *zfsks *dpfphd *lh *ddbmq *vfkpj *vgp
["shellfish", "dairy", "nuts"]: hlmvqh zmb thvm ckqq qrsczjv mrfxh jmdg *dsmc *rqqfnlc *dgrrm *lbskg *xxfgvz *klmjmz *jmgt *jnr *dznd *npbnj *rrbndl *fkh *vfkpj *dvcfx *hnmjfl *qrftr *pmtfmv *kltcm *xzcdnr *gtgrcf *lbfgp *bcvmz *xddkbd *vgjbgj *gjqfj *kglr *qchnn *zlgztsbd *rcvd *xmjlsn *bnzq *kbtx *vnfmc *srgnx *pptgt *llgsg *cbbkfx *cnghsg *xjzc *rbvdt *mnvq *mppf *rknm *tzjnvp *rfh *vgp *vpvj *nfnzx *hkxcb *zqsc *lqmfgp *kmsh *dnpgcd *sjgx *sfk *gmc *jfqqgtl *ltvr *vpgvm *pmvl *qmthj *klx *tbm *rvchbn *pfqxsxd *xjdhk *glrc *rczbvg *knqzf
["peanuts", "shellfish"]: qrsczjv mrfxh ckqq zrgzf thvm zmb hlmvqh *ngqh *lxr *qrftr *nldzpc *cbbkfx *zdntns *xxfgvz *srgnx *qspfqb *zfsks *tzjnvp *tphtz *lbfgp *gjqfj *xjrpr *qfkjsq *rfh *xgbvk *dtlhh *xjdhk *qkgqv *hkqp *dsmc *rczbvg *klmjmz *xlzqfb *ddgdhg *kltcm *vhqfz *kglr *jxjqp *xddkbd *htllnq *gtgrcf *lbskg *gmc *szsbj *zfcvnj *pjqdmpm
["peanuts", "eggs", "dairy"]: jmdg ckqq qrsczjv zmb hlmvqh thvm zrgzf *xlzqfb *vpgvm *flhfddq *kbtx *zmcj *vhqfz *tphtz *vqrjn *stcsp *rgdx *nfnzx *nggcjr *xmjlsn *pgb *ngqh *pjqdmpm *qsgb *nldzpc *hkxcb *klmjmz *rpmmv *xjrpr *zlgztsbd *ncqdr *rpcdfph *qjsbk *gzgvdh *xnfhq *cbbkfx *knnmm *qfkjsq *xddkbd *vgp *pmtfmv *qdpbx *cnghsg *hrfmdk *fjgxv *xlnn *xjzc *mszc *ljmvpp *zntrfp *fdf *pcf *mnvq *bkd *fbcds *dbx *fstgc *dln *pfqxsxd *mhrm *pbn *zttx *zhghprj
["sesame"]: jmdg zmb qrsczjv hlmvqh zrgzf thvm mrfxh *nldzpc *gmc *mjpt *knqzf *rbvdt *zntrfp *nthhxn *rxr *xzcdnr *kx *ljmvpp *kltcm *jmgt *gjqfj *pgqxp *xjrpr *dbx *dmxhhd *pnglkx *gsgmdn *vhcnpg *xjzc *pjqdmpm *rpcdfph *lbfgp *xgbvk *jvvmcq *qdpbx *nqfc *dvcfx *rknm *kbtx *npbnj *mrxg *klmjmz *rrbndl *xbpb *ncqdr *fdf *vpvj *kglr *pptgt
["shellfish", "nuts"]: ckqq jmdg mrfxh zrgzf thvm zmb qrsczjv *tshn *dmxhhd *qmthj *kqzcj *rqqfnlc *pcf *dgrrm *hkqp *flhfddq *qmmt *thcs *vqrjn *vht *tbm *lqmfgp *bcvmz *fbcds *rbvdt *xzcdnr *xlzqfb *vfkpj *sdccxkt *fstgc *fhtsl *qfvfzg *kmsh *dznd *bxv *glrc *pmtfmv *rkzhxmh *zqsc *xjzc *fmvvb *ddbmq *qspfqb *tjsdp *rcvd *xgbvk *gzgvdh *cmnb *pptgt *ngqh *xlnn *sjgx *mrxg *qdpbx *rknm *hnmjfl *szsbj *zntrfp *gtgrcf *fdf *kltcm *vhcnpg *pjln *mppf *dnpgcd *ttxx *srgnx *qszmzsh
removing ("dairy", "thvm")
removing ("sesame", "zmb")
removing ("peanuts", "hlmvqh")
removing ("wheat", "zrgzf")
removing ("eggs", "jmdg")
removing ("soy", "ckqq")
removing ("nuts", "qrsczjv")
removing ("shellfish", "mrfxh")
Day 21 - Part 2: thvm,jmdg,qrsczjv,hlmvqh,zmb,mrfxh,ckqq,zrgzf
generator: 358.788µs,
runner: 1.783195ms
Day 22 - Part 1: 32033
generator: 120ns,
runner: 7.289µs
Day 1 - Part 2 : 165026160
generator: 4.272µs,
runner: 1.225545ms
```
## Day 2
```
AOC 2020
Day 2 - Part 1 : 640
generator: 1.732103ms,
runner: 100.802µs
Day 2 - Part 1 - handrolled : 640
generator: 157.527µs,
runner: 97.775µs
Day 2 - Part 2 : 472
generator: 1.374162ms,
runner: 10.461µs
```
## Day 3
```
AOC 2020
Day 3 - Part 1 : 148
generator: 40.059µs,
runner: 1.345µs
Day 3 - Part 2 : 727923200
generator: 95.265µs,
runner: 6.908µs
```

89
2020/input/2020/day10.txt Normal file
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@ -0,0 +1,89 @@
67
118
90
41
105
24
137
129
124
15
59
91
94
60
108
63
112
48
62
125
68
126
131
4
1
44
77
115
75
89
7
3
82
28
97
130
104
54
40
80
76
19
136
31
98
110
133
84
2
51
18
70
12
120
47
66
27
39
109
61
34
121
38
96
30
83
69
13
81
37
119
55
20
87
95
29
88
111
45
46
14
11
8
74
101
73
56
132
23

93
2020/input/2020/day11.txt Normal file
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@ -0,0 +1,93 @@
LLLL.LLLLL.LLLLLLLLLLLLLLLL.L.LLLLLL.LLLL..L.LLLLLLLL.LLLLLL.LLLL..LLLLLLLLLLLLLLLLLLLLLLLLLLLLLLL
LLLLLLLLLLLLLLLLLLLLLLLLLLL.LLL.LLLLLLLLL.L..LLLLLLLL.LLLLLL.LLLLLLLLLLLLLLLLLLLLLL.LLLLLLLLLLLLLL
LLLLLLLLLL.LLLLLLLLLLL.LLLL.LLLLLLLL.LLLLLLLLLLLLLLLLLLLLLLL.LLLLL.LL.LLLL.LL.LLLLLLLLLLLLLLLLLLLL
LLL.LLLLLLLLLLL.LLLL.LLLLLLLLLL.LL.L.LLLLLLL.LLLLLLLL.LLLLLL.LLLLL.LLLLLLL.LLLLLLLL.LLLLL.LLLLLLLL
LLLLLLLLLL.LLLLLLLLLLLLLLLL.LLLL.LLL.LLLL.LLLLLLLLLLL.LLLLLLLLLLLL.LLLLLLL.LLLLLLLL.LLLLLLLLLLLLLL
LLLLLLLLLL.LLLLLLLLL.LLLLLLLLLLLLLLL.LLLLLLLLLLLLLLLLLLLLLLL.LLLLLLLLL.LLLLLLLLLLLL.LLLLLLLLLLLLLL
...L..LL.LL.LLL....L......L..L.....L.....L....L.LL.....LL..L.L...LL.L...LL..L.L...L.LL...L..LL..L.
LLLLLLLLLLLLLLLLLL.L.LLLLLL.LLLLLLLL.LLLLL.L.LLLLLLLLLLLLLLL.LLLLL.LLLLLLLLLL.LLLLL.LLLLLLLL.LLLLL
LLLLLLLLL.LLLLLLLLLL.LLLLLLLLLLLLLLL.LLLLLLL.LLLLLLLLLLLLLLL.LLLLL.LLLLLLL.LLLLLLLL.LLLLLLLLLLLLL.
LLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLL.LLLLLLLLLLLLLLLL.LLLLLLLLLLLL.LLLLLLL.LLLLLLLL.LLLLLLLLLLLLLL
LLLLLLLLLLLLLLLLLLLLLLLLLLL.L.LLLL.L.LLLLL.L.LLLLLLLL.LLLLLLLLLLLL.LLLLLLL.LLLLLLLL.LLLLL.LLLLLLLL
LLLLLLL..L.LLLLLLLL..LLL.LL.LLLLLL.L.LLLLLLL.LLLLLLLL.LLLLLL.LLLLL.LL.LLLL.LLLLLLLL.LLLL.LLLLLLLLL
...L..L.L.L......L....L.L..L...L.L..L.L...LL.LL....L...L........L.L.LLL....L..L..L...L.L..L..LL...
LLLLLLLLLL.LLLLLLLLLLLLLLLL.L.LLLLLL.LLLLLLL.LLLLLLLLLLLLLLL.LLLLL.LLLLLLLLLLLL.L.LLLLLLLLLLLLLLLL
LLLLLLLLLLLLLLLLLLLL.LLLL.L.LLLLLLLLLLLLLLL..LLLLLLLL.LLLLLL.LLLLL.LLLLLLLLLLLLLLLL.LLLLLLLLLLLLLL
LLL.LLL.LL.LLLLLLLLL.LLLLL..LLLLLLLL.LLLLLLLLLLLLLLL..LLLLLLLLLLLL.LLLLLLL.LLLLLLLL.LLL.LLLLLLLLLL
.LLLLLLLLL.LL.LLLLLL.LLL.LLLLLLLLLLLLLLLLLLL.LLLLLLLLLLLLLLL.LLLLL.LLLLLLL.LLLLLLLL.LL.LLLLLLLLLLL
LLLLL.LLLLLLLLLLLLLL.LLLLLL.LLLLLLLL.LLLLLLLLLLLLLLLLLLLLLLL.LLLLL.LLLLLLL.LLLLLLLLLLLLLLLLLLLLLLL
.LLLLLLLLLLLLLLLLLLL.L.LLLL.LLLLLLLL.LLLLLLLLLLLLLLLLLLL..LL.LLLLLLLLLLLLL.LLLLLLLLLLLLLLLLLLLLLLL
L....LL.....L......LLL......L.LLL..L....L.L....L....LL.L.LL.LL........LL....L.L.L..LLLL.......L...
LLLLLLL.LLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLL.LLLLLLLLLLLLL.LLLLL.LLL.LLL.LLLLLLLL.LLLLLLLLLLLLLL
.LL..LL.LL.LLLLLLLLL.LL.LLLLLLLLLLLL.LLLLLLL.LLLLL.LLLLLLLLL.LLLLLLL.LLLLLLLLLLLLLLLLLLLLLLLLLLLLL
LLL.LLLLLLLLLLLLLLLL.LLLLLLLLLLLLLLLLLLLLLLL.LLLLL.LL.LLLLLL.LLLLL.LLLLLLL.L.LL.LLLLLLLLLLLLLLLLLL
LLLLLLLLLL..LLLLLLLL.LLLL.L.LLL.LLLLLLLLLLLL.LLLLLLLL.LLLLLL.LLLL..LLLLLLLLLL..LLLL.LLLLLLLLLLLLLL
LLL.LLLLLL.LLLLLLLLL.LLLLLL.LLLLLLL..LLLLLLL..LLLLLLL.LLLLLL.LLLLL.LLLLLLL.LLLLLLLLLLLLLLLLLLLLLLL
.LLLLLLLLLLLLLLLLLLL.LLLLLL.LL.LLLLL.LLLLLLLLLLLLLLLL.LLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLL
LLLLLLLLLLLLLLLLLLLL.LL.LLL.LLLLLLLL.LLLLLLL.LLLLLLLL..LLL.L.LLLLL.LLLLLLL.LLLLLL...LLLLLLLLLLLLLL
LLL.LLLLLL.LLLLLLLLLLLLLLLL.LLLLLLLL.LLLLLLLLLLLLLLLLLLLLLLL.LLLLL.LLLLLLL.LLLLLLLL.LLLLLLLLL.LLLL
LLLL.LLLLL...LLLLLLLLLLL.LL.LLLLLLLL.LLLLLLL.LLLLLLLLLLLLLL..LLLLL.LLLLLLL..LLLLLLL.LLLLLLLLLLLLLL
..L...LLL........LL....L.....L.....L..L..L.....L.L.LL...L......LLLLL.L.L...........L.LL.....LL...L
LLLLLLLLLLLLLLLLLLLL.LLLLLL.LLLLLLLLLLLLLLLL.LLLLLLLL.LLLLLLLLLLLL.LLLLLLL.LLLLLLLL.LLLLLLLLLLLLLL
LLLLLLLLLL.L.LLL.LLL.LLLLLL.LLLLLLLL.LLLLL.LLLLLLLLLL.LLLLLLLLLLLL.LLLLLLLLLLLLLLLL.LLLLLLL.LLLLLL
LLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLL.LLLLLLL.LLLLLLLL.LLLLLL.LLLLL.LLLLLLL.LLLLLLLL.LLLLLLLLLL.LLL
LLLLLLLLLLLLLLLL.LLLLLLLLLL.LLLLLLLLLLLLL.LL.LL.LLLLLLLLLLLL.LLLLL.LLLLLLLLLLLL.LL.LLL.LLLLLLLLLLL
LLLLLLLLLL.LLLLLLLLLLLLLLLL.LLLLLLL...LLLLLLLLLLLLLLL.LLLLLL.LLLLL.LLLLLLL.LLLLLLLL.LLLLLLLLLLL.LL
LLLLLLL.LL.LLLLLLLLL.LLLLLLLLLLLLLLL.LLLLLLL..LLLLLLL.LLLLLL.LLLLL.LLLLLLL.LLLLLLLL.LLLLLLLLLLLLLL
....L..L.L.LL..LLL..L....LL...L.L..LL.L......L...LLL.L.L.L.....L.......L......LL.....L..L.L..LL...
LLLLLLLLLL.LLLLLLLLL.LLLLLL.LLLLLLLL.LLLLLL.LLLLLLLLLLLLLLLLLLLLLL.LLLLLLL.LLLLLLL.LLLLLLLLLLLLL.L
LLLLLLLLLL.LLLLLLLLL.LLLL.L.LLL.LLLL.LLLLLLL.LLLLLLLLLLLLLLL.LLLLL.LLLLLLLLLLLLLLLL.LLLLLLLLLLLLLL
LLLLLLLLLLLLL.LLLLLL.LLLLLLLLLLLLLL...LLLLLL.LLLLLLLLLLLLLLLLLLLLL.LLLLLLLLLLLLLLLL.LLLLLLLLLLLLLL
LLLLLLLLLL.LLLLLLLLLLLL.LLLLLLLLL..LLLLLLLLLLLLLLLLLL.LLLLLLL.LLLL.LLLLLLL.LLLLLLLL.LLL.LLLLLLLLLL
LLLLLLLLLL.L.LLLLLLL.LLLLLLLLLLLLLLLLLLLLLLL.LLLL.LLL.LLLLLL.LLLLLLLLLLLLLLLLLLLLLL.LLL.LLLLLLLLLL
LL.LLLLLLL.LLLLLLLLL.LLLLLL.LLLLLLLL.LLLLLLLL.LLLLLLL.LLL.LL.LLLLL.LLLLLLL.LLLLLLLL.LLLLLLLLLLLLLL
..LL.LLL...LLL.....L.L.L......L......L........L.LL......LLL..LL..L..L.LLL..LL..LL.L.....L.LL....L.
LLLLLLLLLL.LL.LLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLL.LLLLLLLLLLLLLLLLLLLL.LLLLLLLL..LLLL.LLLLLLLL
LLLLLLLLLL.LLLLLLLLLLLLLLLL.LLLLLLLL.LLLLLLLLLLLLL.LL.LLLLLL.L.LLLLLLLLL.L.LLLLL.LL.L.LLLLLLLLLLLL
LLLLLLLLLL.LLLLLLLLL.LLLLLLLL.LLLLLL.LLLLLLLLLLLLLLLL.LLLLLL.LLLLL.LLLLLLL.LLLLLLLL.LLLLLLLLLLLLLL
LLLLLLLLL.LLLLLLLLLLLLLLLLL.LLLLLLLLLLLLLLLL.LLLLLLLLLLLLL.LLLLLLL.LLLLLLL.LL.LLLLL.LLLLLLLLLLL.LL
LLLLLLLLLLLLLLLLLLLL.LLLLLLLL.LLLLLLLLLLLLLLLLLLL.LLLLLLLLLL.LLLLL.LLL.LLL.LLLLL.LL.LLLLLLLLLLLLLL
L..L..LL..LLL...L......L.....L...LL..L..L.....L.L...LL......L.L.LLL.L..L....L....L...L.L........LL
LLLLLLLLLL.LLLLLLLLLLLLLLLLLLLL.LLLL.LLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLL.LLLLLLL..LLLLLLLLLLLLLL
LLLLLL.LLL.LLLLLLLLL.LLLLLLLLLLLLLLL.L.LL.LLLLLLLLLLLLLLLLLL.LLLLLLLLLLLLLLLLLLLLLL.LLLLL.LLLLLLLL
L.LLLLLLLL.LLLLLLLLLLLLLLLL.LLLLLLLL.LLLLLLLLLLLLLLLL.LLLL.L.LLLLL.LLLLLLLLLLLLLLLL.LLLLLLLLLLLLLL
LLLLLLLLLL.LLL.LL.LL.LLLLLLLLL.LL.LL.LLLLLLLLLLLLLLLL.LLLLLLLLLLLLLLLLLLLL.LLLLL.LL.LLLLLLLLLLLLLL
LL.LLLLLLLLLLLLLL.LL.LLLLLLLLLLLLLL..LLLLLLLLLL.LLL.L..LLLLL.LLLLL..LLLLLL.LLLLLLLLLLLLLLLLLLLLLLL
LLLLLLLLLLLLLL.LLLLLLLLLLLL.LLLLLLLL.LLL.LLLLLLLLLLLL.LLLLLL.LLLLL.LLLLLLL..LLLLLLL.LLLLLLLLLLLLLL
LLLLLLLLLL.LLL.LLLLL.LL.LLLLLLLLLLLL.LLLLLLL.LLLLLLLL.LLLLLL.LLLLL.LLLLLLL.LLL.LL.L.LLLLLLL.LLL.L.
LLLLLLLLLLLLLLLLLLLL.LLLL.LLLLLLLLLL.LLL.LLL.LLLLLLLL.LLLLLL.LLLLLLLLLLLLLLLLL.L.LL.LLLLLLLLLL.LLL
..L....L....L....L........L...L....L..LL.L.L..L.LLLL.L.LLL...L...L..LL..L...L....L....L.......L.L.
LLLLLLLLLL..LLL.LLLLLLLLLLL.LLLLLLLL.LLL.LLL..LLLLLLL.LLLLLL.LLLLL.LLLLLLLLLLLLLLL..LL..LLLLLLLLLL
LLLLLLLLLL.LLLLLLLLL.LLLLLLLLLLLLLLL.LLLLLLL.LL.LLLLL.LLLLLL.LLLLLLLLLLLL..LLLLLLLLLLLLLLLLLLLLLLL
LLLLLLLLL.LLLLLLLLLLLLLLLLL..LLLLLLL.LLLLLLLLLLLLLLLL.LLLLLL.LLLLL.LLLLLLLLLLLLLLLL.LLLL.LLLLLLLLL
LLLLLLLLLL.LLLLLLLLL.LLLLLL..LLLLLLL..LLLLLL.LL.LLLLLLLLLLLL.LLLLL.LLLLLLL.LLLLLLLLLLLLLLLLLLLLL.L
L.LLLLLLLL.LLLLLLLLL.LL.LLL.LLLLLLLLLLLLLLL..LLLLLLLLLLLLLLL.LLLLL.LLLLLLL.LLLLLLLL.LLLLLLLLLLLLLL
LLLLLLLLLL..LLL.LLLLLLLLLLLLLLLLLLLL.LLLLLL.LLLLLLLLL.LLLLL..LLLLL.LLLLLLL.LLLLLLLLLLLLLLLLLLLLLLL
L.....L..LLL.....LL.L..L..LL....LLLLL.LL..L.......L...LL.....LL...L...........L.....L.L..L.....L.L
LLLLLLLLLL.LLL.LLLLL.LLLLLL.LLLLLLLL.LLLLLLL.LLLLLLLLL.LLLL..LLL.LLLLLLLLL.LLLLLLLLLLLLL.LLLLLLLLL
LLLLLLLLLL..LLLLL.LL.LLLLLL.LLLLLLLLLLLLLLLL.LLLLLLLL.LLLLLL.LLLLLLLLLLLLL.LLLLLLLL.LLLLLLLLLLLLLL
LLLLLLLLLL.LLLLLLLLL.LLLLLL.LLLLLLLL.LLLLLLL.LLLLLLLL.LLLL.L.LLL.LLLLLLLLL.LLLLLLLL.LLLLLLLLLLLLLL
LLLLLLLLLL.LLLLLLLLLLLLLLLL.LLLLLLLL.LLLLLLL.LLLLLLLL.LLLLLL.LLLLL.LLLLLLL.LLLL.LL.LLLLLLLLLLLLLLL
LLLLL.LLLL.LLLLLLL.LLLLLLLL.LLLLLLLL.LLLLLLLLLLLLLLL.LLLLLLL.LLLL..LLLLLLL.LLLLLLLL.LLLLLLLLLLLLLL
LLLLLLLLLLLLLLLLLLLL..LLLLL.LLLLLLLLLLLLLLLLLLLLLLLLL.LLLLLL.LLLLL.LLLLLL..LLLLLLLL.LLLLLLLLLLLLLL
........LLLLLL.LL.L..L...L...LLL....L.......LLLL..L.LL.L..L.L.LLL...L...L.......L..L.....L.L.L..LL
LLLLLLLLLL.LLLLLLLLLLLLLLLL.LLLLLLLLLLLLLLLLLLLLLLLLL.LL.LLL..LLLL.LLLLLLL.LLLLLLLLLLLLLLLLLLLLLLL
LLLLLLLLLL.LLLLLLLLL.LLLLLL.LLLLLLLLLLLLLLL..LLLLLLLL.LLLLLLLLLLLLLLLLLLLLLLLLLLLLL.LLL.LLLLLLLLLL
L.LLLLL.LLLLLLLLLLLL.LLLLLL.LLLLLLLLLLL.LLLL.LLL.LLLLLLLLLLL.LLLLLLLLLLLLL.LLLLLLLL.LLLLL.LLLLLLLL
LLLLLL.LLL.LLLLLLLLLLLLL.LLLLLLLLLLL.LLLLLLL.LLLLLLLL.LLLLLLLLLLLL.LLL.L.L.LLLLLLLL.LLLLLLLLLLLLLL
LLL.LLLLLL.LLLLLLLLLLLLLLLL.LLLLLLLL.LLLLLLLLLLLLLLLL.LLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLL
LLLLLLLLLLLLLLLLLLLLL.LLLLL.LLLLLLL.LLLLL.LL.LLLLLLLLLLLLLLLLLLLLL.LLLLLLL..LLLLLLL.LLLLLLLLLLLLLL
..LL..L....L.......L....L....LL...L.L..L.........LL..L..LL.L....LLL.L.LLL...L.....LL.....LL.LL....
LLLLLLLLLL.LLLLLL.LL.LLLLLLLL..LLLLL.LLLLLLLLLLLLLLLL.LLLLLL.L.LLLLLLLLLLL.LLLLLLLL.LLLLLLLLLL.LLL
L.LLLLLLLLLLLL.LLLLLLLLLLLL.LLLLLLLLLLLLLLLL.LLLLL.LL.LLLLLL.LLLLL.LLLLLLL.LLLLL.LLLLLLLLLL.LLLLLL
LLLLLLLLLL.LLLLLLLLL.LLL.LL.LLLLLLLL.L.LLLLLLLLLLLLLLLLLLLLL.L.LLL.LLLLLLL.LLLLLLLL.LLLLLLLLLLLLL.
LLLLLLLLLLLLLLLLLL.LLLLLLLL.LLLLLLLLLLLLLLLL.LLLLLLL.LLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLLL.LLLLLLLLL
LLLLL.LLLL.LLLLLLLLL.LLLLLL.LLLL.LLL..LLLLLL.LLLLLLLLLLLLLLL.LLLLL.LLLLLLLLLL.LLLLL.LLLLLLLLLLLLLL
LLLLLLLLLLLLLLLLLLLL.LLLLLL.LLLLLLLLLLLLLL.LLLLLLLLLL.LLLLLL.LLLLL.LLLLLLL.LLLLLLLL.LLLLLLLLL.LLLL
LLLLLLLLLLLLLLLLLLLLLLLLL.LLLLLLLLLL.L.LLLLLLLLLLLLLL.LLLLLL.LLLLL.LLLLLLLLLLLLLLLL.LL.LLLLLLLLLLL
.L.L....L........L....LL...L...L...L..L.............LL.LL..L.L.L...LL.......LLL.......LLL.L.L.L..L
LLLLLLLLLL.LLLLLLLLLLLLLLLL.LLLLL.LL.LLLLLLLLLLLLLL.L.LLLLL..LLLLL.LLLLLLL.LLLLLLLL.LLLL.LLLLLLLLL
LLLLLLLLLLLLLLLLLLLL.LLLLLLLLLLLLLLL.LLLLLLLLLLLLLLLLL.LLLLLLLLLLLLL.LLLLL.LLLLLLLL.LLLLLL.LLLLLLL
LLLLLLLLLL..LLLLLLLL.LLLLLL..LLLLLLL.LLLLLLLLLLLLLLLL.LLLLLL.LLLLL.LLLLLLL.LLLLLLLLL.LLLLLLLLLLLLL
LLLLLLLLLL.L.LLLLLLL.LLLLLLLLLLLLLL.LLLLLLLL.LLL.LLLL.LLLLLLLLL.LLLLLLLLLLLLLLLLLLL.LLLLL.LLLLLLLL
LLLLL.LLLLLLLLLLLLLL.LLLLLL.LLLLLLLL.LLLLLLLLLLLLLL.L.LLLLLL.LLLLL.LLLLLLL.LLLLLLLL.L.LLLLLLLLLLLL

786
2020/input/2020/day12.txt Normal file
View File

@ -0,0 +1,786 @@
N3
F18
L180
F40
N3
R90
S5
R90
N4
F24
R90
E5
F36
R180
W3
W4
F63
N4
W1
N1
E1
L90
W1
N2
E2
S2
F39
W4
S3
F93
N1
F83
S1
R90
W3
R90
W4
L90
F53
S4
F4
L90
W3
F83
L180
W2
L90
W2
L90
W1
N3
F63
R90
N2
N3
E4
F10
S3
E4
R90
F11
L90
R90
S2
W2
F100
W5
R270
F40
S5
L90
E2
L90
E2
L180
N5
F81
N4
E4
L180
F38
W2
F22
W5
N5
E1
N2
W4
N2
F68
N1
F2
S1
F47
W5
F80
N3
E3
S2
L180
F87
L180
E4
L90
E2
S3
L180
E2
L90
W2
N4
F21
S4
W5
F70
F4
N2
F14
E2
S3
R90
W3
N2
E3
S1
F85
R90
E1
F80
L90
F100
R90
W1
R180
S4
F58
L90
N3
R90
E1
F42
E3
F93
S3
R90
W2
N3
L90
W3
W2
N2
W1
S4
R180
N5
R180
F52
N5
F20
L180
E5
R90
W2
S4
E1
S3
F75
R90
F49
L180
N3
F31
S3
E3
S5
L180
N3
E2
R270
W5
N3
W5
N3
L270
F54
R90
W5
F73
S3
W2
R90
N2
R90
S5
R90
W4
S2
L90
F3
S2
R90
F76
S3
F56
L90
F5
N1
R180
E3
N2
F20
E2
L180
F38
R180
W4
R90
S3
N5
E5
F26
S2
L180
E4
R90
F52
N3
L90
N5
E4
F63
L90
F48
W5
F29
N1
E3
L90
N5
L90
S3
F8
N2
R90
E4
S2
E2
F10
W2
L90
N2
R90
F2
E2
N4
R90
F74
W3
W5
S2
R90
N3
L90
E3
F58
N4
E5
S4
E3
F72
L180
E3
S2
L90
W4
S1
F14
W1
N1
E3
W4
L90
N1
F97
R90
N4
E3
F95
F95
L90
S4
F55
R90
W2
N1
R90
F16
L90
S5
F4
R90
F24
S4
E2
R90
W5
E1
L270
F12
L90
F100
W1
S5
W2
S3
F95
L90
F44
N5
F79
S4
R180
E2
S1
F40
R90
W2
R90
F67
S5
F15
L90
N4
L90
S5
E1
R90
N3
W5
N4
L270
F61
L90
E1
L90
E1
F38
E2
F19
W2
L90
S4
R180
W4
F59
N1
F26
N1
W5
F7
N4
F72
E2
R90
F59
N1
F58
N5
F13
N2
F2
S2
W1
F85
R270
S2
F17
R90
F96
S2
L90
E1
N4
F9
R270
F58
N1
L90
W2
S2
F73
W1
S2
F20
E2
S4
F94
L180
F27
S2
F48
N1
L270
S2
F77
E3
F10
W3
L270
S4
F53
F66
E5
S2
F33
S5
L90
W3
S3
E3
R90
E1
F62
S1
L90
S3
E3
N1
S1
E5
S2
F66
N4
N1
W4
F84
R180
F23
F20
E1
S3
R90
E2
F48
F89
L90
F97
R180
N3
F62
L90
N5
F28
W5
N4
L180
N4
W1
N3
L90
F95
N1
W5
R180
N5
F34
S1
W2
N4
F3
S2
E1
R90
E2
F36
S4
E5
F42
W1
L180
S1
F74
F38
N4
R270
N3
W2
S4
L180
F26
S4
F51
R90
F83
R90
F9
S2
W1
F99
S4
W1
F84
W1
R180
F59
W5
R90
F75
S1
F34
E4
N3
L90
F43
W5
N1
R90
F59
W1
N3
W4
S2
F36
N5
W4
E2
F96
R180
F44
R90
F12
E5
F24
W3
F39
S2
L180
W3
W4
F70
N4
E4
F36
E2
N1
F30
L90
S2
F81
R270
R90
F66
W1
L90
W2
F98
S1
E1
L90
E3
N2
F100
W3
N3
R90
F88
E4
L180
F52
L90
E4
F76
W2
L90
E3
F72
S3
L180
F12
F34
E5
F90
S5
W5
E1
N5
L180
E5
F84
E5
E3
L90
E3
F14
L90
W3
L90
S1
L90
W2
F54
R90
S2
F73
S4
E1
S1
F55
E5
N4
R180
L180
N4
R90
F91
L180
F5
E2
N1
W2
F27
W2
S5
R90
S3
F39
S3
W2
F59
F83
W3
E3
E4
L90
S1
R90
E4
F81
E4
R90
W5
F74
W3
E3
F30
L180
S2
E3
F33
S3
R90
F22
S5
F97
S1
E2
F50
E2
F19
E3
L90
L90
S5
W3
F80
F33
E1
R90
N3
L90
F70
L180
W4
N2
R180
S2
F38
S3
F7
R90
E1
N5
F86
W4
F49
W4
F51
S4
F47
R90
W3
R180
R180
W1
F98
S1
W3
S4
L90
F76
E1
F76
R180
S4
R180
W3
F26
N5
F35
S2
F94
F24
N2
F45
E1
L90
F32
S1
R180
F78
F84
L90
N2
F42
R90
F72
S1
E3
N2
W1
F23
E2
F69
L90
F29
R90
S5
W5
L90
W1
S2
E1
F96
S5
R180
F26
S5
W1
S3
F38
S1
E2
S5
W2
S5
F52
L90
F11
E3
R90
E4
F6
L90
R90
W1
R90
E3
F1
E4
N3
E5
R90
N2
R180
W2
N5
F46
N3
E5
F83
R90
F42
S3
R90
N5
F10

View File

@ -0,0 +1,2 @@
1000390
13,x,x,41,x,x,x,x,x,x,x,x,x,997,x,x,x,x,x,x,x,23,x,x,x,x,x,x,x,x,x,x,19,x,x,x,x,x,x,x,x,x,29,x,619,x,x,x,x,x,37,x,x,x,x,x,x,x,x,x,x,17

577
2020/input/2020/day14.txt Normal file
View File

@ -0,0 +1,577 @@
mask = 00101X10011X0X111110010X010011X10101
mem[41248] = 4595332
mem[26450] = 60
mem[32210] = 982366
mem[1060] = 234632920
mem[20694] = 38159
mem[45046] = 58906955
mask = 010110010X1101XX11X0100001X0000X00X1
mem[16069] = 7758
mem[55864] = 2473265
mem[37095] = 103513009
mem[4911] = 1002
mem[63231] = 6932274
mem[21265] = 72322159
mem[43724] = 16591353
mask = 01001X01X101011101010101011X1X000000
mem[63470] = 30339812
mem[16920] = 471738
mem[1014] = 29735753
mem[61061] = 6866
mem[8437] = 9138168
mem[46487] = 1819945
mem[2985] = 15040783
mask = 0X10X1101111001X1X100X1X00011100XX11
mem[32836] = 12902
mem[60365] = 24782
mem[29953] = 10085
mem[18214] = 1160
mask = 001011X10X11100000100X0X0X0X01011001
mem[39434] = 37383633
mem[278] = 670174555
mem[34062] = 20749996
mem[2583] = 6222093
mask = 01X111X1001101X11110100XX001X1000XX1
mem[6075] = 49890
mem[9363] = 2392780
mem[24967] = 218861
mask = X110111X1XX1010101111X01XX1000X001X1
mem[41334] = 11836
mem[24242] = 7263066
mem[17289] = 64986060
mem[2583] = 4702503
mem[21650] = 103905
mem[134] = 486675
mask = 00X010100110XXXX111000XXX1000011000X
mem[45307] = 37940
mem[16597] = 224911
mem[17943] = 392744
mem[55001] = 622484
mem[35954] = 470
mask = 11X01011X11000X1X1100X100X011101X011
mem[1005] = 56755
mem[16146] = 4333571
mem[32347] = 10486693
mem[11452] = 377363
mem[25158] = 328161913
mem[51956] = 250388
mem[10044] = 34078606
mask = 011011X1X111010111110000X001X1X00110
mem[8773] = 10575925
mem[33116] = 175
mem[36101] = 14593
mask = 0100010X110X0101010XX10X011111XX1101
mem[21083] = 1922
mem[3653] = 912
mem[26768] = 7321934
mem[49134] = 17616
mem[62950] = 41565481
mem[12957] = 2136786
mem[10324] = 17788
mask = X11X0X0X11010101110X01111010X1100X11
mem[5462] = 18755
mem[39408] = 2435211
mem[49271] = 6589
mask = X1X011XX01X100010110001X0X0X111X1100
mem[52570] = 2166
mem[28731] = 16573421
mem[18265] = 1192
mem[22435] = 10856992
mem[19263] = 7550
mem[30541] = 434738
mem[36101] = 869138
mask = 010001X001010001XX010100000010110X01
mem[52893] = 125505223
mem[22919] = 597
mem[62950] = 54107
mem[52797] = 7649588
mem[30421] = 3968
mem[30429] = 614720
mask = 01X0X10001X100010X1011XX00000X111X00
mem[44718] = 11141064
mem[42713] = 206218234
mem[51781] = 527553473
mem[1967] = 27527823
mem[6386] = 5404
mask = 00101X10XX11X0XX1110001000001110X11X
mem[62339] = 72046594
mem[14657] = 3243652
mem[750] = 40239
mem[134] = 1936539
mem[5775] = 266384125
mask = 011X111XXX110X01X11X000X00010100011X
mem[2956] = 438895
mem[41520] = 7282
mem[42192] = 34769
mem[8837] = 2587
mask = 01XX11100101000X0X10011XX01010011101
mem[12515] = 450388
mem[62175] = 649233
mem[54743] = 129273
mem[10284] = 159823
mem[31311] = 16983
mem[56137] = 852771967
mask = 11010X1X01010101X1010X11101111X00010
mem[47190] = 526627409
mem[34299] = 540572
mem[61226] = 61426238
mem[12892] = 61446
mem[33421] = 4192
mask = 0110111111X10101111010100XX01XX10100
mem[41685] = 258
mem[26983] = 60795579
mem[28064] = 10483
mem[33070] = 66557269
mem[12624] = 448724
mem[38125] = 141175913
mask = 010X1X00X101000X0111010101XX01011000
mem[12957] = 7693971
mem[45285] = 4628
mem[48546] = 799
mem[17857] = 7578026
mask = 00101X100101X0010110000000XX1010X110
mem[41841] = 234511
mem[27387] = 2990
mem[24636] = 1269957
mem[15638] = 428392
mem[22064] = 272
mask = 0XXX10X01011X011111000000XX0X100X010
mem[26764] = 482715793
mem[8422] = 70439
mem[17857] = 28381730
mem[4524] = 750659820
mask = 11101100010100X1011000111000XX00X010
mem[52570] = 517468200
mem[25263] = 11113122
mem[33421] = 32762600
mask = 11101X01XX1000010X10111000X1101X0X00
mem[16577] = 910
mem[32450] = 16924479
mem[4421] = 24801362
mem[46638] = 8546454
mask = 01X11X1101110101X1X1X010000XX101X001
mem[34209] = 24703796
mem[30481] = 831
mem[46487] = 147322
mem[38619] = 11686
mem[26615] = 1174
mask = 010X0X00110100X1XX000010110XX100X001
mem[53587] = 198046
mem[38420] = 22334
mem[20181] = 962
mask = XX101101X01000010XX01111001111010100
mem[33812] = 107321
mem[8613] = 7395
mem[1117] = 149990
mem[22919] = 23596
mask = 1X01110110010X01X100000001111011X010
mem[57800] = 254591077
mem[6633] = 60308580
mem[8980] = 104196938
mem[5936] = 289911936
mem[44806] = 297364592
mask = 11X10XX0X1010X01010110XXX01111100X00
mem[49271] = 177794
mem[15368] = 259266583
mem[19327] = 590
mem[40243] = 24245
mem[57130] = 1201404
mem[22545] = 1831196
mem[59161] = 25210381
mask = 0X101X11111X010111100X110XX11000X10X
mem[38749] = 2091454
mem[45138] = 621877
mem[52107] = 3430339
mask = 0010X110X11X00101X100011XX111X000100
mem[17228] = 252642
mem[23892] = 13721
mem[43787] = 2786942
mem[55481] = 58875
mem[513] = 892
mem[62445] = 40312
mask = 0010X11XXX11001011X01010X0111110X100
mem[17415] = 7415167
mem[9048] = 46059
mem[2159] = 636711036
mask = X010111X111X010X1110X10100XX1000X00X
mem[38420] = 104527
mem[24790] = 85
mem[58634] = 127952377
mem[8958] = 11672057
mask = X01X111X00X110XX0X10000000000X0X0100
mem[283] = 241
mem[8898] = 36719
mem[49134] = 217820
mem[31884] = 419937
mask = 0XX11110X1110X0101111000000100110X00
mem[27694] = 6848
mem[25843] = 331711
mem[6688] = 581239
mem[41591] = 171
mask = 0100X100X1010X01010X001XX01XX1010101
mem[30429] = 1103121
mem[42192] = 7844667
mem[21668] = 51727200
mask = 001X1X10001X101XX1100X1000101100X010
mem[4322] = 157863993
mem[49962] = 9140
mem[16964] = 1599
mem[14443] = 2038
mem[3767] = 16636129
mem[13476] = 485497191
mem[1663] = 163345
mask = X101110111010101X1X10011001X10110000
mem[13172] = 195
mem[33921] = 5684133
mem[1337] = 51317
mask = X1XXX101110101X1010X0100XX111X101001
mem[63928] = 4636
mem[56436] = 3887978
mem[6185] = 3037
mem[7095] = 11521156
mem[1663] = 121401
mem[7218] = 20750
mask = 010001001X0101010X00001XXX100XX10100
mem[24149] = 309519
mem[16287] = 12731276
mem[29772] = 65227
mem[37172] = 2824
mem[17508] = 59271
mem[22133] = 3806
mask = 01X0X101011X000X0X101000100011111101
mem[14401] = 158547520
mem[37172] = 16841
mem[40439] = 461272566
mem[60909] = 478018315
mem[43219] = 2154608
mem[25369] = 46117
mem[54852] = 79656
mask = XX10111001X100X1X1100X1X0001110001X1
mem[4213] = 900609324
mem[19327] = 28071
mem[30421] = 782
mem[4804] = 17293
mask = 0100X1000101X0010X010101X01000011001
mem[18139] = 1546181
mem[14021] = 33793814
mem[46699] = 2014
mem[51956] = 171606030
mem[29702] = 475302805
mem[18265] = 198549
mask = 0101X0110X1X0101X1X1X01101001X001XX1
mem[38962] = 132592128
mem[9436] = 7464578
mem[12650] = 49333
mem[8837] = 3234578
mask = 011X11101011X101111000XX001110001110
mem[61694] = 1206
mem[32263] = 20761769
mem[2116] = 193628
mem[13505] = 123039
mem[62164] = 14323289
mask = 1X101010100X0101X1110X01000101X00100
mem[21385] = 1022949
mem[51318] = 5667643
mem[17420] = 36980027
mem[29202] = 801
mask = 0101X01XX11X0101X10110X1010001001001
mem[15338] = 23103863
mem[10488] = 4521
mem[13172] = 17055515
mask = X10111X11X01X111X100000000111011X111
mem[36577] = 397263
mem[8992] = 11944917
mem[22064] = 738796
mem[17310] = 1562710
mem[30068] = 4950154
mask = 011111X10111X10X010X00X1X100X0010001
mem[31166] = 6551
mem[62218] = 1528
mem[11467] = 35999360
mem[39578] = 11530695
mem[30855] = 27864
mem[18369] = 1610323
mem[58953] = 12938251
mask = 01X111010X1111X0010X0XX010000X000111
mem[15411] = 1096
mem[49541] = 3181
mem[23568] = 276408
mem[45168] = 1721
mem[11394] = 155136
mask = 1111X1X011010001X101010X100XX11001X1
mem[61945] = 26647548
mem[63262] = 110741
mem[33783] = 158
mem[12753] = 200460
mem[43229] = 7579
mem[37084] = 26507
mask = 0100110011X10101010X00X01X11X1X10101
mem[65089] = 636807464
mem[5775] = 4440830
mem[52107] = 69328099
mem[38420] = 859060126
mem[21272] = 1700
mem[12062] = 176162
mem[12094] = 8733
mask = X100010111XX01X1X1010100X01101001X1X
mem[44718] = 33650499
mem[26507] = 165784650
mem[12622] = 2023
mem[5651] = 120398699
mask = 110001011X010X0111X10X00011110001X00
mem[44975] = 666498
mem[11614] = 751
mem[61354] = 5063
mem[4396] = 1131
mem[25418] = 882
mem[49245] = 64151
mask = 011X1X110111X1XX11X1100X01000X101001
mem[59013] = 1141214
mem[18016] = 95668408
mem[30067] = 18132964
mem[38900] = 286972459
mem[42265] = 13529062
mem[59369] = 6028326
mask = 0110110X010100010XXX0X00X0011X101X1X
mem[6479] = 8816055
mem[28451] = 29446
mem[61417] = 59156
mem[6694] = 15597
mem[29264] = 115437
mask = 11110100110101011101XX0001X1X1110101
mem[46886] = 114630
mem[17383] = 452299
mask = 010X110X11X10101000X001X011010000100
mem[19215] = 487176198
mem[59629] = 2120284
mem[27009] = 3064
mem[42335] = 22072
mem[514] = 2010
mask = 0100X1001101010X010000X0001000X00100
mem[37232] = 2564
mem[20561] = 29506163
mem[27396] = 380700410
mem[34075] = 868
mem[24967] = 1882926
mask = 010X1X01XX110111111X0XX0000X010X0101
mem[61084] = 3068852
mem[33028] = 188720342
mem[17375] = 62850
mask = X10X1X0X110101010X01001001101000X000
mem[24149] = 1815
mem[51489] = 197928369
mem[27694] = 231814
mem[11813] = 1002177793
mem[526] = 104755102
mem[22216] = 8396
mask = 0110111101010001X1X0X11100X010001111
mem[21083] = 2509191
mem[13215] = 172339241
mem[12386] = 106305632
mask = X1X101X11101010101000X010X11101101X1
mem[35709] = 64980388
mem[51838] = 62510
mem[48641] = 1174272
mem[42157] = 149
mask = 0X101100010100010X0X00X1100101111111
mem[35807] = 1100541
mem[10044] = 69616152
mem[3047] = 142725213
mask = 11101X1X10X101010111X001XX10X0X00100
mem[38049] = 110
mem[43097] = 14955394
mem[61810] = 3545867
mem[61238] = 5370
mem[20585] = 191903
mem[26133] = 24248
mask = 010X110X011X00010110010100X0XXX1X011
mem[15950] = 140910
mem[12062] = 424527462
mem[11876] = 236
mem[5182] = 4776
mem[50278] = 490
mask = 010XX011011101X1110101110111110110X0
mem[53736] = 2314
mem[12633] = 5053
mem[66] = 49557761
mask = 01X01101X10101010101000X00111110100X
mem[18849] = 911
mem[20666] = 12891678
mem[5609] = 10432
mem[59720] = 22145720
mem[17508] = 42631
mem[8585] = 3448
mask = 11X1X10X110101X101010X01X0011011X001
mem[30601] = 9140827
mem[30361] = 4166366
mem[46057] = 16057
mem[26983] = 251682577
mem[63197] = 1603252
mem[52893] = 462048575
mask = 011011100111X00X11100X00100010001XXX
mem[17534] = 25807901
mem[4932] = 106350673
mem[42192] = 735653575
mem[10874] = 59007
mask = 01000101110001X1XX001000001X1X011111
mem[48049] = 386
mem[1538] = 138451275
mem[50333] = 15707
mask = 0101100X01110111XX1X0000001011001X01
mem[18139] = 102960
mem[41277] = 5837
mem[44484] = 29937
mask = 11101XX10X1X0001011000100X010010X00X
mem[30615] = 95201946
mem[719] = 3697022
mem[27391] = 150969140
mem[62680] = 427952
mem[7349] = 46922
mem[17375] = 41348888
mem[57800] = 1901
mask = 0010X11X1X11X011111X0011001X01001111
mem[46994] = 118757653
mem[32947] = 23571
mem[8653] = 1364
mem[3767] = 6954112
mask = 01001X0011010X000111X0X0X1X011011XXX
mem[37908] = 88438829
mem[20630] = 618075182
mem[21520] = 101250753
mem[10703] = 475904
mask = 001001101XX10010111X1X10100111XX11X1
mem[17310] = 2889476
mem[2725] = 463419
mem[65001] = 910330085
mask = X1011011X111010101X110X1X1X0010110X0
mem[15999] = 18586203
mem[12825] = 51333145
mem[29966] = 596120517
mem[26866] = 141039
mem[24223] = 415414
mem[24403] = 16110598
mask = 0XX00X01111X01110X011010101X01101010
mem[43382] = 150995
mem[28011] = 1021785
mem[60339] = 7805893
mem[37197] = 268431
mem[17792] = 253366088
mem[21437] = 24057926
mask = XX1011X111100X00111X1100010111010011
mem[18006] = 265940517
mem[55921] = 1634
mem[27656] = 17058
mem[4911] = 3686
mem[33243] = 8125794
mem[47537] = 146165365
mask = 110111011X01X1X10100X000010110111X0X
mem[5775] = 176470
mem[63017] = 24003454
mask = 00011X001X11XX11111X01101010X0000010
mem[1604] = 174349
mem[42888] = 7159712
mem[26615] = 1487
mask = 01X11101100111111X000X1001110001011X
mem[5344] = 8563500
mem[21234] = 166162105
mem[48935] = 10849963
mask = 01000101XX0001111000XX0000X010010X00
mem[24149] = 127627213
mem[27338] = 43164114
mem[47215] = 252815
mem[47431] = 32732410
mask = 01011100000100011X0X0XX101X111111100
mem[13412] = 4193068
mem[45046] = 148
mem[63535] = 11659
mem[6518] = 471308933
mask = 111X111011X1X1X101111X000100001101X1
mem[31114] = 118512878
mem[41334] = 1604
mem[7338] = 571
mem[6001] = 4126415
mem[5215] = 4392
mem[47836] = 1862
mem[22064] = 30804845
mask = 0111010X11X1010X0101X1110011101X0111
mem[13321] = 22426593
mem[37095] = 5357
mem[44281] = 467020
mem[62680] = 2721559
mask = 010001X0010100XX10010000011000101X00
mem[30615] = 261491
mem[31097] = 46202501
mem[27880] = 6002395
mem[51385] = 2780
mem[51435] = 43181943
mem[42192] = 107728750
mask = 101011100X1100110X1X00X0101X10X11101
mem[48366] = 859523
mem[14111] = 859
mem[21668] = 292390073
mem[8073] = 858
mem[12920] = 662378
mask = X111X10011X10101X10101XX01111011X101
mem[20630] = 4051571
mem[55963] = 367
mem[379] = 10962356
mem[33028] = 37
mem[24035] = 9459
mem[50949] = 2030
mask = 001011100X110X111X10101100011X010X11
mem[8437] = 47226
mem[41248] = 319
mem[9624] = 3503
mem[6875] = 5282
mask = 11X111XX100101010100X01XX1X1001X1000
mem[21292] = 1673693
mem[51132] = 10346473
mem[7504] = 4325
mask = 111X010X1101011101X100010XX1X0111100
mem[35415] = 6296
mem[19215] = 1263591
mem[49977] = 379136185
mem[62950] = 28156510
mem[8265] = 28662942
mask = 01X110X01X1X0X11X1X00110000X01000100
mem[54672] = 131784041
mem[11394] = 24602
mem[24646] = 10584
mem[44349] = 4883
mem[54743] = 2940969
mem[8265] = 14841530
mask = 0X10111X11100X0011X011XX00X011011010
mem[49374] = 45910
mem[25923] = 368017518
mem[25114] = 8076340
mem[62690] = 904875563
mask = 010X11X0X1X1010X01010X01101001110101
mem[39408] = 3080
mem[6918] = 125955053
mem[27880] = 29186
mask = 01001101X101010X0101X1001111100010X1
mem[11813] = 153838914
mem[20585] = 1917
mem[21385] = 1881773
mem[8556] = 25758757
mem[22435] = 802061
mem[27631] = 13285866
mask = 01101110111X0001011X10100X0100X10101
mem[23441] = 186656612
mem[2186] = 189388742
mem[12866] = 874882
mem[12947] = 23895
mem[20630] = 77211
mem[42083] = 63015239
mem[51838] = 4984972
mask = 00101110X111001X1X10001XX0X111XXX101
mem[14789] = 244532376
mem[21292] = 736136092
mem[10874] = 513949
mem[16755] = 12361
mem[5416] = 22987
mem[39578] = 106587
mask = 010X11000X010001X1XXX0110011X1X1110X
mem[43479] = 61
mem[47199] = 15617564
mem[18265] = 6027808

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16,1,0,18,12,14,19

265
2020/input/2020/day16.txt Normal file
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departure location: 35-796 or 811-953
departure station: 25-224 or 248-952
departure platform: 47-867 or 885-959
departure track: 44-121 or 127-949
departure date: 49-154 or 180-960
departure time: 35-532 or 546-971
arrival location: 41-700 or 706-953
arrival station: 25-562 or 568-968
arrival platform: 31-672 or 680-969
arrival track: 43-836 or 852-961
class: 38-291 or 304-968
duration: 31-746 or 755-956
price: 46-711 or 719-971
route: 35-584 or 608-955
row: 39-618 or 640-950
seat: 25-308 or 334-954
train: 26-901 or 913-957
type: 33-130 or 142-965
wagon: 34-395 or 405-962
zone: 46-358 or 377-969
your ticket:
97,103,89,191,73,79,83,101,151,71,149,53,181,59,61,67,113,109,107,127
nearby tickets:
895,527,676,768,695,821,473,414,835,426,741,650,886,709,938,355,113,358,106,888
559,796,709,661,116,680,773,857,118,304,704,578,720,339,584,914,270,196,661,861
390,557,348,432,734,441,74,761,272,266,531,704,52,78,200,478,455,664,663,339
400,386,926,211,100,481,358,429,450,336,943,549,933,78,274,722,571,483,144,442
579,509,478,975,218,855,93,759,92,406,339,648,144,128,478,948,489,482,547,926
512,946,469,183,24,694,889,198,551,947,275,857,408,943,734,382,308,80,448,119
305,830,449,54,518,193,663,825,95,946,484,672,248,701,257,395,827,783,218,189
128,52,773,150,561,436,483,913,526,819,903,700,530,941,757,509,386,885,554,788
779,947,111,357,206,252,661,481,124,450,773,554,779,827,116,466,259,434,901,898
651,143,274,523,89,53,116,71,513,108,753,858,209,282,410,436,357,57,517,743
87,691,793,306,426,127,152,836,192,497,276,418,66,771,147,910,824,917,767,510
180,657,454,609,60,190,705,337,941,947,835,554,546,84,546,772,389,193,531,890
128,387,865,735,462,548,652,89,902,728,490,490,278,931,81,265,449,523,948,112
588,892,450,651,154,583,667,835,356,497,81,405,671,480,53,259,514,896,352,734
928,686,618,946,933,205,485,392,445,119,69,248,265,398,522,725,438,781,821,555
73,213,183,89,210,650,349,356,722,550,341,816,986,824,250,145,890,446,690,698
488,462,456,569,746,471,460,995,916,777,526,116,520,71,762,569,455,472,890,647
549,351,421,477,661,335,148,530,759,207,599,283,304,208,271,609,919,574,528,708
610,833,569,613,672,664,924,99,94,389,819,664,727,739,249,768,836,911,252,825
923,429,814,577,109,818,571,522,714,646,815,706,898,439,216,494,495,931,898,458
96,852,211,822,181,71,697,709,542,745,273,813,493,499,474,196,469,79,276,792
608,219,527,665,474,755,419,700,913,644,822,393,666,412,335,402,281,618,460,771
267,438,112,433,853,103,676,766,187,831,490,569,927,826,771,334,773,377,342,209
258,98,457,900,83,511,612,897,220,414,119,24,734,572,147,425,72,509,118,287
81,386,854,74,363,118,738,448,53,772,526,112,198,948,926,915,186,526,408,501
853,553,490,194,282,756,261,939,754,448,386,522,516,83,154,65,433,780,415,451
153,702,580,200,948,198,146,379,121,109,759,114,153,659,794,735,852,568,347,84
856,742,770,91,270,611,693,148,450,265,506,889,680,657,130,729,75,457,455,8
188,553,865,61,184,208,643,405,996,212,856,574,943,470,745,532,185,811,613,735
887,381,24,68,426,640,89,85,693,757,460,109,913,689,763,358,121,655,498,424
772,771,418,58,922,152,272,378,689,254,290,568,453,24,73,768,254,457,503,896
695,649,924,79,209,661,775,859,575,221,858,86,269,857,836,305,274,23,659,795
61,553,740,52,522,270,388,124,736,660,457,897,262,665,833,104,442,530,270,479
392,893,306,252,278,336,259,560,421,103,150,409,923,460,190,711,261,503,12,924
863,768,397,857,384,260,70,916,96,470,390,466,472,666,442,50,457,819,532,69
861,441,900,519,383,467,809,191,72,426,720,711,380,468,505,485,546,266,743,652
189,82,440,738,685,640,507,194,699,694,449,449,404,437,553,113,947,433,925,64
151,768,503,66,918,129,913,474,827,823,358,115,750,833,791,783,576,790,920,276
432,813,10,925,689,694,558,462,813,194,515,739,476,210,490,182,726,609,480,421
148,211,56,811,945,213,550,354,465,529,463,795,58,655,677,919,282,266,812,357
462,455,76,737,383,471,663,617,811,84,97,796,263,546,930,442,871,409,827,467
250,724,682,652,197,512,501,861,373,220,276,899,734,777,258,467,888,287,697,441
89,918,763,793,208,823,694,467,212,264,755,889,104,643,530,766,702,767,462,154
146,347,79,341,791,195,858,622,648,833,796,390,189,262,192,249,719,392,67,95
367,144,697,887,430,506,343,739,220,283,455,469,507,471,684,85,547,489,856,832
498,65,97,187,445,427,615,583,451,198,734,513,142,454,756,713,513,612,471,789
501,483,212,690,715,739,735,410,900,561,584,336,855,727,651,70,526,613,776,527
654,762,519,185,350,438,584,940,831,687,378,782,278,436,716,816,502,63,217,835
825,265,471,920,584,286,118,109,616,271,772,511,192,726,633,103,407,416,419,418
223,263,121,56,187,654,514,737,876,942,856,286,427,768,831,740,455,281,85,854
486,642,271,617,576,672,459,151,763,890,665,697,708,96,180,678,98,579,854,354
78,219,92,736,143,865,268,862,658,120,356,732,704,854,147,411,214,685,117,926
491,777,270,230,62,552,477,427,618,337,213,508,790,571,345,512,410,69,72,552
697,149,409,661,576,615,696,142,942,353,281,736,473,452,739,452,418,367,866,583
354,738,737,108,637,112,211,825,356,926,520,766,345,355,700,948,279,212,764,90
203,425,771,222,279,428,583,507,277,689,687,215,188,864,467,72,674,641,381,759
479,763,261,511,655,62,568,781,656,223,530,75,692,987,104,935,266,733,467,262
415,111,785,308,489,111,932,648,455,512,218,55,910,285,389,355,497,520,547,724
650,76,531,598,767,216,406,947,438,212,920,256,611,572,660,395,865,789,251,856
498,740,14,822,82,335,522,724,932,414,284,775,722,191,699,493,421,740,475,184
151,337,451,581,663,419,279,400,646,272,64,744,181,684,512,727,393,142,739,469
251,649,640,621,76,858,305,440,923,264,407,642,520,687,258,827,108,947,78,932
832,546,893,919,218,96,196,478,418,769,722,864,576,382,597,787,392,949,655,691
83,741,429,56,289,615,546,734,127,450,638,192,343,251,498,255,852,308,671,923
447,818,826,743,145,695,285,485,414,432,864,358,95,481,104,931,10,734,561,931
784,502,263,204,449,94,766,941,684,464,124,776,425,86,608,380,272,467,485,282
261,449,457,646,349,721,199,466,731,783,198,192,61,455,901,366,512,449,725,70
449,145,579,783,501,426,111,736,277,257,433,864,455,217,289,600,128,642,573,51
21,788,352,920,184,794,783,938,785,405,614,885,580,102,515,129,57,502,93,938
578,664,726,192,224,484,761,452,105,436,556,240,765,671,273,249,920,663,896,858
217,436,644,118,743,764,671,273,746,922,891,721,390,856,897,561,910,826,788,117
507,618,859,708,149,687,922,181,119,350,671,391,457,980,727,554,786,788,386,441
617,478,483,217,640,929,183,935,274,771,245,258,664,385,834,286,79,434,448,145
428,946,524,413,402,51,496,115,777,682,64,378,681,493,520,609,147,77,900,692
261,642,350,949,640,561,626,63,394,254,829,525,886,584,51,409,380,812,515,550
282,66,827,524,274,514,830,356,703,818,721,862,532,447,405,614,901,949,334,561
101,546,574,365,439,390,922,96,581,72,896,782,80,513,439,280,78,149,520,291
183,854,86,307,796,500,150,103,358,725,368,937,191,211,900,644,732,742,198,142
616,558,63,650,349,127,349,554,484,80,103,261,678,407,832,212,265,187,767,693
441,943,943,730,689,980,471,183,348,289,948,820,641,469,569,666,914,438,575,609
860,482,775,386,283,487,216,717,930,513,53,255,335,756,502,392,378,199,720,790
781,656,555,584,206,284,519,490,890,463,679,272,289,776,559,408,343,206,572,486
665,795,189,287,569,889,387,363,939,207,523,501,819,856,259,516,146,210,816,855
857,78,94,277,821,336,715,663,760,184,934,460,424,528,511,478,780,892,214,738
568,457,280,108,243,892,831,917,127,928,351,99,282,103,889,645,767,416,380,349
933,760,991,736,661,127,853,682,756,180,291,216,83,825,935,651,146,113,498,813
84,408,381,551,50,274,696,471,15,514,612,616,197,780,916,198,763,102,523,503
584,416,85,180,931,485,900,761,674,358,915,502,103,938,946,614,728,290,471,892
695,51,391,102,251,560,391,334,23,578,80,731,729,482,811,61,919,769,87,272
827,143,548,613,933,986,813,513,664,283,796,860,268,933,493,568,444,391,383,855
780,504,571,489,910,927,254,71,889,430,405,59,472,886,482,486,826,887,700,781
60,341,248,187,998,265,128,338,506,65,698,664,741,186,284,711,277,867,550,559
406,304,376,249,742,790,181,345,62,668,498,645,684,822,180,478,812,74,432,506
270,381,831,187,680,283,241,608,735,496,130,724,530,892,792,81,419,772,655,351
482,106,781,656,336,736,64,737,192,357,264,663,185,709,988,383,191,443,217,97
267,944,254,179,82,486,290,794,86,496,617,662,762,308,450,385,180,683,479,215
926,406,626,860,422,897,710,735,693,82,520,561,180,268,252,651,922,250,554,251
468,475,923,562,8,289,924,914,944,392,216,51,485,60,196,927,187,815,78,290
61,855,766,451,864,361,271,105,153,927,338,939,475,788,60,939,104,212,546,900
704,512,570,707,831,427,571,487,429,945,217,186,344,474,50,571,493,405,708,441
388,867,405,398,740,196,147,451,470,546,460,128,98,77,405,776,285,510,824,153
279,438,550,654,392,979,461,852,692,560,56,931,920,69,614,642,427,930,512,116
116,78,490,214,275,494,488,550,397,435,206,144,461,898,947,901,688,557,482,51
579,519,554,903,552,731,59,211,729,654,823,761,154,514,65,888,494,697,348,142
68,129,412,83,870,932,154,643,730,786,659,352,835,681,524,433,658,436,261,347
488,814,279,774,821,105,710,483,16,105,460,520,477,786,546,206,75,554,70,699
652,515,670,211,289,611,348,896,926,199,691,282,718,349,291,104,209,201,823,692
355,87,455,472,934,568,832,827,340,776,261,818,1,143,933,722,482,287,698,785
449,557,357,270,94,463,647,885,853,701,61,59,761,923,578,611,424,729,920,81
619,826,258,520,738,779,577,90,719,757,513,658,338,683,836,918,288,463,691,340
646,128,424,440,87,709,788,391,305,308,381,188,746,78,794,386,636,813,500,270
191,778,659,767,346,257,95,154,393,423,609,380,107,617,857,347,122,142,223,431
516,71,889,922,407,522,870,736,777,147,394,118,818,689,358,344,470,207,526,761
98,97,682,814,62,20,108,828,482,711,524,764,201,771,834,186,495,409,418,434
287,305,54,611,337,489,771,537,816,683,517,465,304,220,515,770,467,572,148,666
215,390,287,269,284,121,727,925,305,815,347,87,808,193,121,97,577,524,820,186
266,213,87,854,580,489,764,57,275,250,538,338,547,307,269,121,143,106,115,183
555,893,866,888,522,195,404,557,455,647,774,494,818,109,784,571,66,822,671,440
658,555,105,338,505,661,573,740,127,508,56,667,642,449,658,111,120,398,255,60
277,65,550,280,640,817,900,262,490,419,791,201,266,548,881,219,350,287,260,821
494,478,573,415,928,70,821,231,394,121,383,562,666,440,664,77,474,348,380,820
666,260,412,534,918,655,449,283,743,463,90,727,558,76,113,711,612,824,745,941
898,815,783,816,94,289,69,222,480,201,108,640,580,522,205,117,468,715,127,781
942,472,648,744,925,112,903,781,410,106,897,274,306,818,781,575,896,664,450,647
407,390,945,269,818,584,616,96,642,185,813,127,900,830,708,475,221,888,366,650
249,407,939,915,95,265,439,436,164,71,766,943,197,110,115,75,890,63,84,268
277,82,617,513,128,334,114,549,621,284,653,709,818,104,836,478,892,181,113,205
443,473,198,416,918,642,646,795,900,488,1,920,728,443,824,188,695,578,522,78
80,443,451,573,181,518,592,735,688,110,919,143,387,64,142,411,193,252,643,919
392,492,486,95,528,252,448,934,527,579,796,902,822,305,477,270,468,923,859,889
643,356,190,830,863,153,76,91,932,457,691,880,344,775,108,512,512,286,61,769
146,490,417,429,687,395,525,477,930,521,61,268,444,184,64,77,235,466,110,727
461,582,343,666,825,188,84,941,886,107,382,129,487,660,261,173,192,72,53,913
128,935,546,419,143,787,83,779,577,431,859,658,496,475,403,52,380,357,863,548
472,900,916,942,777,776,433,659,422,357,53,826,204,182,19,686,575,796,509,532
908,201,268,129,858,495,916,711,697,854,224,757,308,406,484,477,426,503,687,89
794,628,392,180,822,508,555,787,57,202,568,387,507,937,185,916,575,514,103,91
519,348,79,82,745,708,515,99,111,416,564,411,385,652,76,409,818,758,469,473
489,121,342,573,488,439,504,435,519,919,62,265,764,690,927,622,788,348,823,556
660,501,588,654,478,660,725,721,653,352,581,343,88,196,286,616,787,532,830,644
766,525,582,471,947,198,501,89,104,900,745,685,362,455,249,211,389,812,506,113
425,506,457,255,289,492,498,468,707,766,180,386,609,742,57,564,828,782,769,515
275,363,148,699,351,525,812,767,67,932,87,551,308,866,112,188,304,440,431,392
424,414,510,822,223,709,419,55,73,546,203,404,759,860,279,273,927,474,347,861
505,439,783,384,765,719,58,415,353,778,418,674,147,433,794,93,945,823,411,70
918,250,934,436,812,385,207,675,481,383,405,345,208,618,681,84,87,785,616,215
264,94,350,861,116,502,155,946,578,938,391,187,96,666,491,927,653,260,220,429
391,895,497,648,495,81,256,887,348,181,216,354,213,657,501,561,743,483,824,998
938,854,791,777,740,100,767,862,648,432,942,104,562,93,670,216,650,6,220,526
255,110,477,344,347,887,124,552,82,895,147,58,260,77,424,813,615,444,223,928
925,691,345,895,708,388,860,249,563,119,503,928,865,97,498,492,202,426,661,117
472,96,280,424,480,440,348,896,73,503,718,862,730,899,260,941,469,337,186,259
708,646,6,220,482,700,202,918,889,337,831,130,656,890,921,766,530,210,66,381
524,508,528,346,649,77,433,939,935,793,423,304,318,97,671,932,562,736,726,253
145,215,651,721,675,819,206,696,723,111,216,512,385,285,928,726,709,495,437,666
118,288,95,866,435,102,353,196,335,935,145,105,125,508,306,438,818,261,854,736
656,529,742,807,189,416,856,290,414,933,88,572,348,473,925,104,831,186,281,665
249,198,417,714,279,936,813,814,823,357,351,89,304,60,936,503,103,377,381,505
787,933,280,527,492,704,405,252,468,785,305,457,431,193,378,521,896,283,422,741
814,860,216,405,129,790,490,906,465,929,181,478,667,93,497,888,423,641,866,502
834,521,429,529,388,792,477,216,440,683,739,251,831,360,770,650,51,337,727,205
204,401,110,794,394,682,569,95,190,287,720,515,70,524,440,191,501,442,853,644
186,259,509,476,664,687,865,420,186,220,480,651,229,933,153,765,497,546,471,580
405,916,150,514,702,387,741,939,385,896,576,824,487,504,866,867,356,734,889,581
734,358,829,735,548,142,437,388,331,773,455,182,152,336,459,489,483,79,581,470
67,656,820,264,406,739,698,51,516,547,822,128,580,191,71,0,562,857,550,103
513,490,822,982,934,763,555,194,145,789,99,917,380,253,504,388,344,420,75,180
101,662,492,414,147,343,818,668,490,488,69,715,406,731,552,81,357,477,945,833
495,931,719,384,274,145,366,98,501,356,654,437,507,898,248,406,387,556,757,381
410,423,821,395,984,521,862,260,190,611,654,709,213,145,264,84,935,496,248,385
494,94,549,59,784,488,435,685,191,769,181,143,213,441,918,7,90,446,514,734
886,505,744,566,855,288,441,655,487,507,417,744,901,786,278,431,211,769,778,570
85,812,930,667,610,117,735,881,706,414,65,857,289,287,758,109,556,891,103,84
79,476,445,211,515,707,725,557,859,80,393,792,600,470,427,478,120,390,504,930
552,896,73,618,449,447,692,818,662,887,338,820,690,185,406,553,586,643,335,75
745,668,406,877,551,76,756,501,785,98,459,304,519,720,57,469,416,739,668,793
276,834,581,258,764,557,184,760,186,859,857,175,939,924,578,759,866,349,681,287
578,153,766,489,349,406,276,380,709,55,852,304,222,859,900,878,492,347,437,925
579,665,790,901,416,929,75,914,940,205,814,354,196,681,909,432,652,265,651,194
58,505,344,79,528,418,731,121,604,142,270,150,780,257,88,355,789,935,83,337
455,419,391,189,187,497,687,531,130,129,400,856,206,276,260,273,727,696,571,769
886,920,698,784,582,611,698,856,440,248,475,392,876,463,190,443,914,70,697,222
91,205,353,920,477,475,153,672,948,573,485,270,665,480,63,222,784,473,457,993
738,745,212,346,653,828,50,860,379,118,921,694,540,819,214,147,657,94,55,497
793,17,194,925,150,350,755,554,508,252,527,289,55,253,694,509,769,102,59,118
461,250,272,394,480,248,758,890,667,128,575,217,842,700,649,792,212,693,897,96
926,928,558,452,588,515,289,459,221,481,913,60,465,61,143,580,415,744,442,685
267,152,772,891,153,257,448,895,115,612,520,538,710,698,885,463,195,746,86,466
776,89,497,277,344,684,573,414,194,455,667,626,127,523,271,283,340,446,471,784
334,641,853,473,278,452,94,763,644,690,831,738,136,256,733,922,935,462,768,776
249,142,256,97,75,562,458,828,865,680,444,361,644,464,930,423,789,84,688,419
706,52,714,347,510,782,286,428,708,113,505,89,901,834,770,120,511,427,204,63
86,62,501,468,64,885,105,641,214,825,453,560,388,764,79,123,690,413,380,487
96,885,505,689,938,511,483,189,202,97,355,792,500,689,392,336,713,740,853,788
531,89,925,122,261,479,923,864,816,106,568,453,692,518,556,929,709,78,928,790
456,513,395,212,757,730,729,653,724,975,429,756,457,418,489,725,929,528,437,184
947,854,154,255,95,70,724,682,226,94,423,187,641,616,252,105,885,558,658,695
663,386,584,556,209,277,542,732,552,106,818,819,690,415,415,478,216,219,815,218
272,743,99,339,74,647,72,488,577,353,89,426,91,745,823,135,782,757,773,57
81,826,492,113,562,66,430,287,830,370,284,434,547,142,899,338,765,378,732,644
644,350,490,929,901,816,942,69,493,257,118,695,858,713,79,222,500,343,116,608
487,412,702,771,418,722,857,475,437,450,812,830,250,490,561,553,658,709,90,462
550,60,90,145,429,203,991,509,94,283,500,608,468,892,460,617,916,277,857,474
524,695,889,437,582,895,901,422,761,691,107,117,476,54,818,807,269,517,928,894
507,715,776,831,120,385,338,415,377,95,579,445,696,785,91,696,274,568,307,415
85,90,129,78,940,774,521,468,459,101,431,348,255,205,416,24,66,434,287,755
897,937,896,507,895,657,932,858,819,890,471,430,994,681,410,420,925,498,280,940
50,941,470,745,458,72,271,740,288,546,549,125,504,467,248,254,184,767,91,51
575,461,649,149,54,762,925,613,741,584,408,922,738,305,377,703,433,410,755,81
507,269,148,886,180,659,817,71,466,476,111,336,498,782,361,707,915,576,650,478
764,475,57,763,925,88,515,555,803,641,351,414,271,548,121,657,719,467,860,473
484,764,910,487,191,204,721,682,113,187,926,569,441,337,761,787,142,202,353,106
714,437,468,562,811,198,443,420,118,610,743,923,666,643,513,743,934,354,433,357
513,578,744,574,721,739,551,488,207,574,865,145,901,103,701,508,218,818,264,777
684,572,186,679,944,776,78,105,947,212,937,424,857,412,929,787,532,186,260,812
423,259,558,577,648,425,306,672,307,714,550,573,348,612,249,744,253,521,427,193
270,273,474,746,531,836,269,443,471,433,100,732,625,510,654,557,894,420,688,248
825,522,945,833,262,507,82,601,680,945,446,946,921,89,477,513,411,276,70,151
472,664,80,343,277,669,268,224,59,791,347,342,128,934,645,741,375,379,687,185
668,894,212,392,95,491,791,264,573,812,894,698,728,73,767,448,794,634,116,213
885,52,940,305,788,558,447,705,744,526,557,571,549,777,690,886,393,392,377,518
107,344,897,693,767,468,249,560,570,289,121,341,608,435,412,860,399,778,646,470
429,351,515,87,726,888,523,650,418,464,803,200,666,56,813,829,670,816,192,657
279,187,280,500,382,942,52,687,853,62,491,306,934,506,699,321,796,381,934,55
69,772,786,783,722,222,759,358,265,853,710,445,567,920,770,645,936,224,80,733
377,795,794,438,256,813,829,852,511,919,872,662,200,188,457,889,942,467,519,503
437,96,211,829,931,335,347,811,409,700,736,20,119,525,395,338,930,474,734,486
502,199,287,285,471,551,488,252,895,466,104,415,156,945,512,51,358,830,340,859
129,340,461,772,670,686,812,386,438,744,662,590,532,811,577,143,641,888,308,934
85,815,948,571,117,949,516,980,822,58,258,737,856,573,212,819,923,531,914,949
945,531,934,344,917,692,343,281,291,288,164,811,697,899,897,187,928,266,285,852
377,420,283,655,127,421,221,740,550,611,50,306,417,80,610,392,429,705,477,852
116,211,852,422,484,933,215,215,760,202,349,789,440,685,615,536,149,616,729,568
497,393,743,867,60,863,150,13,939,149,56,527,783,111,782,493,671,280,260,923
742,284,811,708,148,710,925,265,734,413,384,731,992,689,467,784,103,886,259,73
484,349,479,705,188,188,933,465,221,722,72,571,274,735,456,866,192,818,76,393
942,998,248,914,272,380,380,924,461,61,291,392,154,709,420,574,813,493,786,511
55,50,353,792,84,721,865,223,205,833,997,930,579,761,583,98,727,744,647,780
766,82,280,201,943,695,516,898,68,143,682,205,387,780,433,230,744,200,690,936
205,558,687,475,90,337,920,665,529,196,456,445,283,55,120,749,60,304,553,389

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(7 * (3 + 8 + 8 + 7) + (6 + 8 * 2 + 5 + 2 * 6) * (5 + 2) * 9) + ((7 * 4 + 8) * 6 * 8 + 9) * 7 * 2 * 2
6 * ((9 + 4) * (6 * 7 + 5 + 8 * 2))
7 * 8 + 2 + 8 * (8 * 4) * (4 + 8)
(9 + 3 + 2 * 5 * 8) + 9 + 5 * 2 * 5 * (6 * 6 * 4 + 6 * 9 * 3)
6 * 6 * 4 * (6 + (3 * 9 * 2) + 9 + (4 + 7 + 7))
7 * ((4 * 6 + 4 + 6 * 8 + 6) + (2 * 7 * 8 + 5 * 3 + 7) + (5 * 5 * 5 * 7) + 8 * 7)
(8 + 9 * 7 * 9 + 6) + (7 + 5) + 6
5 * (6 * (3 + 2 + 9)) + 8 + 3 + 5 * (4 + 3 * 8 * 8 * 6 * 2)
4 + (3 + 4 * (4 + 9 + 3) * (4 * 8 * 4 * 9))
4 * 4 * 6 * 2 + ((8 * 4 * 3 + 6) * 5) + 6
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6 + 3 * 3 + (8 + 4)
(8 + (8 * 2) + 4) * 5 * 4 + 5
(5 * 5 * 5 * 8 + 8 + 7) + (6 + 9) + 4 * 3 + 4
(3 + (2 * 9 + 2 + 9 + 4) + 2 + (5 + 3 + 2)) * 5 * 3 + 5
6 + 3 * ((8 + 7 * 8 * 7 + 9) + 3 + 3 + 9 * (7 + 5 + 9) * 9) + 5 + (7 * 8 + (5 * 7 + 5 * 9 + 4))
(4 * 9) + 7 * 9
(3 + 7) + 2 + (5 * 2 * 4 * 6 + 5)
5 * 4 * 2 * ((9 * 4 * 7) * 2 * 3) + 3 + 6
(5 + 2 * 7 * 7) * (4 * (3 * 8 * 2) * 3 * (2 + 3 * 8)) + 4 * 6 + 8 + 7
7 * 4 + 2 + (6 + 2 * 5 * 2 + 6 * 9) + 7 * 2
8 + (4 * 4 * 7 * 9 + 5 + 6)
(4 + 7 + 8 * 6) + (3 * 5 + 4) + 4
6 + 2 + 3 + 2 * 3 + 9
6 + ((7 * 6 + 5) + 4 + 9 + (5 + 6 * 6 + 5 * 2 * 9) * (2 * 9)) + 9 + 5 * 2
8 + 3 * 4 * 3 * (3 * 9 * 2)
9 * (7 * 7 * 4) + 3 + (9 + (6 + 6 + 2 + 3 + 5 + 6) * (3 * 7 * 9 * 3) * 6 + 8 * 3)
5 * (9 * 2 + (6 + 2 * 5) + 5)
4 + 3 + 9 + 7 + 5 + (3 * (2 + 8 * 6) * 4 + 2)
3 * ((2 + 5 + 2 + 6) + 3 + 4 + (7 + 9) * (7 + 8 * 4 + 9) * 3) + 9 + (8 + 6)
8 + 4 * 4 + 7 + ((3 * 9 * 2 + 2 * 8) + (3 + 6 + 2 * 5 * 4 * 8) * 8 * 8)
4 + 4 * ((5 + 3 + 2 * 4 + 7 * 8) * (5 * 6 + 9) + 5 * 3)
7 * 8
3 + (5 * 3 + (5 * 9) * 2 + 4) + 2 + 3
6 + 8 + 3 + (2 * (6 + 5 + 3 * 8 + 9) * 3 * 9) * (6 * 8)
2 * 9 * 4 * (6 * 2 * 6 * 3 * 8) * 4
6 + (3 * 4 * 7 + 5 * 5 + 2) * 4 + (6 * 5 * (6 + 2 + 9 + 6 * 8) * 2 + 5) + 4
6 * ((6 + 4) + 9 * 5 * 3 + (9 * 5)) * (4 + 2 * 7 * (4 * 9 * 3 * 8) * 4) + 3
7 * 2 + 6 * (3 * 6 + 6 * 5) * 7 * 7
3 + 8 * (3 * 2 + (9 * 3 + 8 * 7 + 8 + 4) + 6 + 3 + 5) + (6 + 8 + 7 * 3) * 9 * (4 * 3 * 6 + (9 + 9 * 9 * 2 * 6) + 4 + (6 * 4 + 5 + 9 + 9 + 7))
4 * 8 * (8 * 5 + 3 * 6 * 7 + 9) * 9
8 + 4 * 9 * 4 * 8
(3 * 7 + (5 * 2 + 7 + 5 * 6) + 9 * 5) * 6 + 6 + 2 * 5
(8 + (4 * 8 * 8) * 7) + 4 * 8 * ((4 * 4 * 5) + 8 + 8 + 2) + ((6 * 8) * 8 * 8 * 8 * 2) + 8
4 * (6 + 2 + 6 + 9 + 7) * 4 + 7 + 9
5 + (2 + 6 * 8 + 5) + (6 + (8 + 9 + 5) * 4 * 3) * 4 * 5
9 * 6 + 5 * (4 + 2 + (7 + 9 * 6)) + 5 + 6
8 + ((8 + 3 + 5 + 3 * 8) + 5 + 3) * 4 * 3
2 + (3 + 5 * (8 * 2) + 8 + 5) * 8 + 4 + (8 + (9 + 8) + 8 * 9 * 7) + 9
7 * (4 * 2 + 5) * 8
3 + 5 + 7 + (6 + 2 * 7 * 7 * 5) + ((3 * 4 + 8 * 5 + 6) + 4 * 5)
(9 + 6) * 7 * (9 + 3 + 4 * (8 + 8 * 3 + 6 + 8 * 2))
2 + (6 + 5 + (7 * 5 + 5 + 9 + 7 + 6) + 2 + 2 * (8 + 8))
4 * 9 + 2 * 9 + 9 + 8
((2 * 7 * 5) * 8) * 8 + 4 + 8 * 4
7 * 5 + (8 + 9) * 3 * 6
8 + ((9 + 7 + 8) + (8 * 5) + 2 + 7 + 3 + 3) + 3
6 * (5 * (7 + 6 + 5 * 9 + 8 * 5) * 6) + 7 * 9 * ((2 + 5 * 8 * 2 + 3) * 3 + 7 + 5 * 3) * 2
3 * (3 + 5 + 4) * 6 * 9
6 + ((8 * 5 + 3 + 9) * (5 + 2 * 4 * 5 + 5) + (2 * 3) + 4 + 7) + 7 + 8 * 6 + 4
((9 * 2 + 8 * 9) * 4 + 5 * 3 * (8 * 2 * 7)) + (7 + 4 * 2 + 6) * 9
(6 * 5 + 7 * (5 * 5 + 4 + 7 * 7 + 6) + 2) * ((4 + 6 * 5 * 6 + 7) + 9 + 5) * 7 * (4 + 7 * 6 + 5) * 5
8 * (3 * 6 + 5) + 9 * (9 + 6 * (4 * 6) + (7 + 8 + 5 + 3)) * (3 * 7 * 8 * 2) + 9
8 * 3 + (5 + 3) + 8 * 4 + (4 + (7 + 9 * 5 * 3) * 6 + (7 + 5 + 4) + 8 * 8)
2 * 3 + ((8 * 8 * 8 + 4) * 7 * 7) * 5 * 8
(6 * (7 + 3 + 8 * 5 + 2) + 2 * 4 + 5 * 5) * 2 * (8 + 3 + 3 + (6 + 4) * (9 * 3)) + 6 * 9
8 * (7 * 6 * 8 * (3 * 6 + 4 + 6 + 2 + 2) * 6) + 8 * 8 * 6
(7 * 5 * 5) * 7 * ((3 + 6 + 3 + 4 + 2 * 2) * 8 * (7 + 9 * 9 * 9))
((5 + 7 * 9 * 2 + 7) + 7 + 5 * 6 + 3) * 6 * 2 * 3
5 + (5 * (9 + 9) + (7 * 7 * 4 + 2) * 3)
((8 * 8 + 2 + 8 * 9) * 5) + (2 + (9 * 6 + 9 + 7) * 7)
3 + ((7 * 4 * 4 * 5) * (8 + 3 * 4 + 4 * 9) * 5 * 3 + 7) + 4 * 2 * 7 * (3 * 6 * 6)
((9 * 7 + 6 + 7 * 9 + 2) * 4 + 3 + 4 + 4 * 6) * 8 + (4 + (8 + 2 * 6 * 4 * 3)) + (5 + 2 * 6 * (4 * 5 + 4 + 2)) + 4 * (6 + 3 * (2 * 2 * 6 * 3) + 8 + 4 * 5)
(5 * (7 + 9 + 5) + 6) * 5 * (6 + 7 * 9 + 6) * 9 * 5 + 9
(4 * 4 * 6 * (5 * 8 + 3 + 8) + 5) + (9 * (3 * 9 + 3 * 9) + 5 + 8 + 2 * 3) * 3 * 2 + 8 * 5
7 + 5 * (3 + 8 + 6 * 9 + 5 * 8) * ((9 * 9 * 4 * 9 + 3) * (6 + 9 * 5) * 8 + 4 + 6)
7 + 8 * ((3 + 7 * 5) + 3 * 2 + 2 * 3 + 7) * 9 + 8 * 7
3 + 4 + (5 * (9 + 9 + 3 * 6 * 4 * 3) * 4) * (4 * (7 * 6 * 3 + 5 * 2 * 9) + (7 * 3 + 5))
3 * (2 + 8 + 2) * 6 * (4 * 4)
2 + 2 + 3 * 5 + (3 + (6 + 2) + 9 + 7) * (3 * 3 + 5 + 8 + 7)
4 + 5 + 6 * 6 * 6 + (3 * 2 * 3 * (2 * 6 + 9) + 6 + (5 + 2 + 9 * 6))
((4 + 9) + 2) * 7 + 3 * 4
2 + 6 * ((2 * 7 * 8 * 3 + 8 + 4) + 9 + 6 + 9 * 2 + 9) + 7 * 6
9 * 7 + ((2 + 5 * 2 * 7 * 8) + 6 * 2 + 3 + 4) * 5 * (5 + 2 * 7) * 8
4 * (8 + 5 * 6 * 8) + 2 + 3 * 7
(2 * 2) * 9 * 6 * 3 + 9
9 + 2 * (7 + 5 + 7 + (3 + 7 * 2 * 2 + 3) * 3)
(2 + 5 * 9) * (4 * (9 + 2 * 4 + 3 + 2) * 2 + 8 + (6 * 7 + 9 + 5)) * 3 + 8
(6 * (6 + 7 * 7) + 7 * 6 * 7) + ((7 * 6 * 4) * 6 * (8 + 8 + 5 * 7 * 8 + 8) + (4 + 5 * 5 + 5 + 3 * 9) + 8)
9 * (6 * 9 * (8 * 2 * 6) + 4 * 4)
(5 + 5 * 5 + 8) * 6 + 5 * 2
4 + ((8 + 7) + 5) + 6
9 + 6 * (7 + 4 + (9 + 4 + 2 + 8)) + (8 * 5)
(3 * 8 + (6 + 9 * 8 + 6)) + 3 + 4 * 8 + 5 * 3
3 + 6 * (7 * 8 * 6 * (5 + 8 + 6) + 5 * 4) * ((8 + 9 + 6 * 8) * 9 + 6 * 6 + 2 * 2) * 4
7 * (6 * (5 * 5 + 9 * 7 + 5 + 9) + 8 + 9 + 2 * (6 * 7 * 7)) * 3
4 + 2 * (5 * (3 * 8 * 3) * (5 + 9 + 8 * 9) + 9 + 7) * 7 + 5
6 * 5 * (5 * 3 * 9 * 4 * 2) * 9 + 7 * 4
3 * (4 * (7 + 2) + 4 + 6 + (3 + 6 + 6 * 5)) + 5
7 * 7 * (5 + 9 + 9) * (8 * 6 * 5 + 4 * 2)
6 + (9 * 4) * ((4 * 2 * 4 * 4 * 6 * 7) + 9 + (2 * 9 + 9 + 9)) + 2 + 4 + 4
9 * (6 * 5 + 9 * 2 * 4) + 7 + 8 * 8 + 9
(6 + 7 + 8 * 2 * 4) * 5 + 2 + 2 * 5 + 6
8 * 7 * (9 * 2 * 4 + 3 + 4 * 4) + (8 * 8 + 9 + 6) + ((7 * 7 + 2 * 9) * (2 * 8 + 2) * 6 * 6) + 8

561
2020/input/2020/day19.txt Normal file
View File

@ -0,0 +1,561 @@
102: 100 47 | 76 84
23: 60 47 | 73 84
132: 17 47 | 81 84
108: 55 100
18: 116 47 | 26 84
103: 84 115 | 47 81
65: 84 113 | 47 50
128: 107 47 | 125 84
14: 84 100 | 47 107
118: 47 17 | 84 57
2: 47 100 | 84 40
28: 63 84 | 74 47
22: 102 84 | 123 47
123: 84 74
19: 3 47 | 13 84
24: 74 47 | 81 84
115: 55 55
90: 92 47 | 44 84
48: 84 94 | 47 96
109: 17 84 | 100 47
92: 84 75 | 47 108
66: 38 47 | 125 84
83: 66 47 | 108 84
31: 121 84 | 77 47
29: 47 61 | 84 111
45: 47 47 | 47 84
59: 47 49 | 84 43
37: 47 30 | 84 95
36: 107 84 | 125 47
82: 74 84 | 38 47
61: 84 10 | 47 110
79: 47 28 | 84 109
33: 101 47 | 133 84
12: 45 47 | 63 84
91: 122 84 | 93 47
122: 65 47 | 52 84
21: 57 84 | 115 47
8: 42
67: 102 47 | 64 84
39: 113 84 | 81 47
41: 84 124 | 47 10
50: 47 47 | 84 84
17: 47 84 | 84 84
120: 98 84 | 78 47
113: 55 47 | 47 84
20: 84 128 | 47 104
7: 84 1 | 47 20
51: 84 113 | 47 81
56: 84 83 | 47 69
131: 84 127 | 47 97
0: 8 11
5: 47 63 | 84 125
94: 15 84 | 127 47
121: 99 47 | 27 84
119: 47 115 | 84 57
129: 47 80 | 84 131
15: 47 100 | 84 45
35: 84 50 | 47 76
95: 47 115 | 84 107
68: 127 84 | 51 47
124: 84 107
75: 50 55
57: 47 84 | 84 55
13: 47 33 | 84 129
53: 106 47 | 59 84
106: 16 84 | 118 47
89: 84 125 | 47 45
104: 45 84 | 76 47
99: 47 56 | 84 7
78: 84 74 | 47 81
64: 17 47 | 115 84
32: 50 84 | 40 47
1: 47 24 | 84 72
47: "a"
80: 114 47 | 109 84
88: 47 119 | 84 132
105: 47 125 | 84 100
6: 68 84 | 67 47
110: 76 84 | 63 47
38: 84 84 | 84 47
49: 47 63 | 84 76
26: 55 107
81: 47 84
74: 84 47
96: 84 89 | 47 117
77: 47 86 | 84 71
135: 32 84 | 2 47
133: 47 15 | 84 128
42: 19 84 | 62 47
30: 47 100 | 84 74
27: 6 47 | 91 84
63: 84 55 | 47 47
62: 84 87 | 47 23
76: 84 84
4: 84 135 | 47 54
60: 41 47 | 37 84
100: 47 47 | 84 47
85: 47 112 | 84 18
116: 125 84 | 63 47
134: 57 47 | 115 84
34: 52 47 | 25 84
40: 47 47
111: 58 84 | 126 47
3: 29 47 | 130 84
114: 17 84 | 107 47
52: 47 45 | 84 74
10: 47 100 | 84 81
98: 47 76 | 84 100
112: 84 82 | 47 103
72: 40 47 | 45 84
126: 50 84 | 113 47
107: 84 47 | 47 84
11: 42 31
55: 84 | 47
54: 12 84 | 5 47
130: 34 47 | 70 84
84: "b"
127: 81 47 | 17 84
87: 84 53 | 47 9
101: 105 84 | 14 47
9: 88 84 | 120 47
73: 47 79 | 84 22
97: 74 84 | 50 47
117: 74 47
70: 47 134 | 84 46
58: 47 50 | 84 115
125: 47 47 | 55 84
46: 47 81 | 84 17
86: 84 90 | 47 85
25: 38 84 | 63 47
69: 39 47 | 78 84
43: 47 100 | 84 125
93: 84 66 | 47 35
44: 47 21 | 84 36
16: 57 47 | 107 84
71: 48 84 | 4 47
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aaaaaaaaaabbbbababbbbabb
abbaaabbbaaaaaabbababaab
abaabbbbbaabbabaaaabababaabbababaaabbaab
aaaaabaabaababbaabbbbaba
bbbbbaaabbabababbaabbabaabaaaabaaabababb
aaaaabbaabbabaaaabbabbbabbbaaabbbaabaaaabbaaaaaa
aaabaaaaaaaaabbaaabaaabbbaabbbabaaaaabbbbabaaaaa
abaababbaababbbbaaabaaaabbbbbbbaabbaabaa
abaaabaabbbbbbabaabbbabbababaaba
bbabbaaabbaaaaababaaabbaaabbbabbbbbbabbaaabbabba
aaaaaaabbaababababaabbaababbaaaabaaabbab
bbbbbaaaaaababbbbaabbaab
abbaabbbbbaaaabbbbbbaaaabaabbabbaabbbaabbbaabbab
aaaabbbababaababbbbaababaababbaabbbabaababbbaabbbbaabbbaababbbaa
abbabbaaabbbaababbabaaab
aaaaaaababbaaabbbbaababb
baaabbaabaaabbaaabbbabba
babbbaabbbabbaabaabbaabaaabababa
aaaababbabababbbababaaabbbabaababbaababaaaabaabaabbabaaabbbaabaa
aaaaaaabaabbabaaabbabbaaaababbbbabbabaaabaaabaabaaaabbbaaabbbaaa
abbbbbbbbbbbabbabbbbaabb
baaabbbaabaababbaaabbaba
bbbbbbabbabbbabbaabaababbbbaabab
aaaaababbbbbabbbababbaabbbbbbabbaabbbbbbbbaaaaaa
ababaabbbababbbbbbbaaaabaabbbaaa
aaaababbbbbbabbabbaabbaa
aaabaababbbababbbabbabbb
bbababaaabaaabbaaabbaaaa
aaaaababbbaabbaaaaaaaabaabbbababbbbaabab
aabbaabbbabaabaabaaaaaaaabaababbbabbbbbaababbabbababaabaaabbbabbaabaabbaaabbbbba
bbbbaaaabbabababbbaaaaaa
abaaaaabaaaaaaabaabbaaabaaababaaaabaaaaa
babbbaabababaaabababbaab
baaaaaababababbbbaabababbbbbbaabbabaaaabaaaaaabaaababbaa
aabaaabbaababbabbabaabbbaababbabaabbbbaa
ababbbbbabbbaabababbaaba
bbababababbbaaaaabaabbabaaabbabb
bbaabaabaabbbaabbaaaaaabaabbabbbabbbbaab
baabaabbaababbbabbbbbaba
aaaaabababaaaaababababba
abababababbbabbbbababaaa
ababbbaabbabbbbabbbbbbaaabbbbabaabbabbba
babaaaaaaaabbaaabbbaabab
abaaababaaaabaaabaaaaaaabbabbbaaaababababaaaababaaaababbbbabaabbaabbbbba
aaababbbbaaaabbbaaaaaaabbbbabbbaaabbbbaa
babababaaaaababbabaabaab
bbaabbbababbabababaabaababbbbabaabbaaaaababbbbab
abababbbaabbbbababbbaaaaaaabaaab
aabaabaaaaaababaabbaaaabaabaaaaaaaababaa
aabbbaabbbbbabaababbabba
abbbaabaaaaaaaaababbbabbbbaaaababbbbbababbbaaaaa
aaabbbabbbbababbbbaabaabbaaaabab
aabbaababbabbbabbbbbbaba
abbaabbabbbbaaaaabaaaabbbaaababb
aaabababbbbbaaaabbbababb
abbbbbbbaaabaababbababababaabbbaabaabaaa
bbbabababaabbababaabbbbabaababaa
bbbabbabaaaabaaaaabbaaababababababababaaaaaabbbbaaaaabaabbaababb
aabaaabaaaaaaaababbabbbb
aabbabaabaabbabbaaabbbbaaabaabaa
bbaaaabbbbbabaaabababbbaaabaaababababaab
bbbbbbbaaabbbbbaaaaabbab
babaabbbbaaabaaabbbababbbbbaabaaabbbbaba
bbaaaabbbbbbaaaaabababaaaaabbaaabbbaabba
bbabbbababaabbbbaabaaabaaaabbaaa
baabaabbabaababbbbaabaabbaabbabbabbbbababbaaabbb
babbbabaabbbaababababbab
aabaaabbabaaaaabbbaaaabbaaabbaba
aaaaabaaabaabbbbaabbbbbb
aaaabbbabbababaabaabbbaabbbbbababababababbbaaabbaaabbabaaababbba
abaaaabbabbbbbabbbabbbababbaababbbaaabba
abababbbbaabbbbbbabbbbbbabbbbbabaaaababbababaabb
abaaabbabbababbbabaababbbaabbbbababbbaabbbaabbaa
babbbbbbbaabababbbababaaabbabbaabaabbabbaabbbaaa
aaababbababaaaabbbbaaaaa
babaaabbaabbbbbaaaaababa
aaabaaaaaabbaababaabbabababbaaaabbaabbaa
abaabbabbbaababaabbbaabababbabaabbaaaababbababaaabbbabbb
bbbbababbbaabaabbabaaabbaababbaaabaaabbb
baabbbabaaaaaaabbaabbaab
bbbaaabaaaababbbababaabbbbbbbaabbbbababb
babbaaaababbabbaabababbbababbbabaaababaa
aaabababaabbabaabbbabaaababbbbab
bbbbababbbabbbababbababbbaababaababaabba
bbbababababbbbbbabbbaaaaabaabbba
aabaaabbabbbbbaaabaababaabaaabab
bbabbabaabaaaaaababbbbaa
abaabaabaaaaabaabbbbbabababbabbbaabaabaa
bbabbbaababbbabbaabbaaabbabbabaabaaabaaababaabaabbbabbababbbbabbbabbabbabbaabbbb
aaaaabaababbababababbbbbaababbabbbabababbbbbabbb
abaaabbabbabbbaaaabababb
abbbbbababaaaaabbabaaaaa
bbbabbabaaabbaabbaaaabaababbaaab
bbbbbbbbabaabbaaaabbbaaa
baaabbbaaababbbbabbbabbbabaabaabaababaab
aaaababbbbaabbbaaaaababbbabbabba
bbabbbaaababaaabbbbbbbbabbaabaababbabbba
aaabababbabbbabaaabbabaaaaabbaba
aabaabbbbaabbbabaaabbbbabbbbabbb
bbbbbbabababaaababaabbbbaabbaaaabababbbb
abaaaabbaaabaabbbbaaababaaabbaabaabbbbbb
baabbababbbaaabaababbbba
baaabbbabababbbaabbaabab
babababaaaabaaaabbbbabbb
babbababaaabbbbabbbaabaabaabbbbbaaabbbab
baabbaabbababbababbaaaaa
bbababbbaaaaaaaabaabbbbaaaaabaaa
abbbaabbbbbbbbaabbabbbabbbbbabaaababaaab
bbaabbbababaabbbbabaaaba
baaababababaabbbbbabbaba
abababbbaababbbbabbabaabbaabbbaaabbbaabaabbbbaaa
bbaaaaaaaaabababbaabababaababbbbbbbbabaaaaabbabbbbbbbbaabaaaaabbbababbaaaaababaa
baaaaabaaaaaaaaaabbabbba
baabbbbaabaabbabbaaabbbb
abbabbabaabbabaaaabbabab
abaabbbbbaaaaababbabaaba
bbbbbaaabbaabbbaabaaabbaabaaaaabbaabababaabbabbbbabbaabb
babbbabaabaaabbaabbbbbaa
bbabbaabbabbabaabbaaaabaaaabbaab
aaaababaaabaaaaabbabbabaababaabaaabbabbb
abbaaabbbbababaabaaaabaa
baabbbbabaabaabbbaabbaab
baababbabbbabaabaaabaabbbaaabaaabbbbbaba
bbbababbaabbbabbbbbbbbaa
bbbbbbabbbabbabbabbaabbbaaabaaab
bbbababbababaaababaaabbabaababbb
baabaabbaabbabaabbbaaaab
bbaaaababbabababaaabaaaaaaabaabaabbbbaba
bbabbaaabbbbbaaabbbaabab
ababaaababbabababbaababb
aabaaaababbabbabbabbbbaa
aaaabaaabbaabbabababaaaaabbbabbb
abbbabaabbabbbaaaabaaababbabbabbbbaabaababaaabbb
bbaaaabbaabbaaabaaaaaaabaaabbbbaaabbaabaaababaaabbaaabaa
babbbabbaaabababbbabaaab
abbabbabbaabbababbabbbbaaaaabbbabbababba
abbaababbbaabbababbbabbaaabbbbbaaaabababaabababbbbaabbbaabbabaabbbbbabbaabaaaaab
babbbabaababbbabbbbabbba
baaabaabaaaaaaabbabaabba
baabaabbbaabaaabbbabbaaabaaaaaabbbbbaabb
bbababbbabaaaabbbababaaa
baababbaaaabbbbaabbababbaabbaabaabaabbbabbabaaab
bbbbbbaaabbbababbaababbbbaaabbaabbaababb
bbabbaaabaabbbaababbaabb
ababbbababbbbbbbababbabb
babababababaaaaaaaaababababbaaabbabaabab
abaaabaaabbaabbbbabbaaba
aaaababbbabbbbbbbbbaabba
babbbabaaababaaabaaababb
ababbbabbbabbabbbbababaaaaabbbaa
aaaaabbbaabbaababbbbbbbbbaaaabbbaaaaabaabbbbaabaaababbaabababbabbabbabbb
abbabaabbbabbbaaaaabaaaabbbbbaaa
bbbbabbaaabaabbbaabababb
bbbabbaabbbaabaaabaaabaabaaaaaabaabbbbaa
bbbababbbabaaaabaaabbaba
abbababbabaababbbaabbabaaaabaabbaaaabaaabbabbbbbababababbbbaabba
aaabaaaaaababbbaabbaabab
abaabbaabaaabababaaabbbababbbbab
aaaaabbbbbababbbbabaaaaa
aabaaabaaababaaaabaabaaa
aabaabababbbaaaabaabbaaa
babaabaababaabbbbbababbbaaababbaabbabaabbabbbbabbaabaaba
aabaaabaaaabaaaabbaabbbb
bbbbaabaabaaabaaaababbbabaabbaab
bbabababbbabbbbaabbbbaab
baabababbaabbbbbbaaabbbabbbabbbbbabaabbababbaaabaabababa
abbbabbbabbabbabbaaaabaabbbbbaaaabaabababaababaaaaabababaababbba
baabbabbbaabbbbaabaabbabaababbaa
abaababbaaaaabbbaabbbaabaaababbbbbaaababaaaaababbabbaabb
bbbabbbbababababaaabaaabbaabbabaabbabbbbaababaaaabbbabbbbbbabbbbaaaaababbaaaaaaa
aababbabaabababaaababbabbaaaaaaabbbbbbaabbaaabbbbbbaabbb
ababbbabaaabaababbbaaabb
abbbbbbaabbbbbbbbbababba
bbabbbbabbabbbaaabbabaababbbaaaaaabbaaaa
bbaabaababbbbbbbabaabaab
aaaaabbabbbbabbabaabbbbbbabbabaaababbabbaabbaaaa
abbaabbabbbbbbbbabababba
abababbbabbababbabbabbaabbbbaabb
baaabaaaaaaaabbabaaababb
abaabbbbbabaaaabbaaaabaa
bbaabaaabbaabaaaabbbbbaa
baabaaabbbbbbbbabbababaaabbaaaab
bbaaabababbaaabbaabaaabbaabaabbabaaaabaa
aababbbbbbabbabbbbabbbbaaabababb
abbbabaabbaaaaabaaabbaaa
abbbaaaabaaabaaaaaaaaaaabbaabbab
aaabaaaabbbbbbbaabbababbbabbbabaabbabbaabbbbaaaabbbaabbb
aabbaaabbbabbabbbbbaabaaaaaaaabaabbbaabb
babbbbbbaabbabaabaaaabab
aaaaabbbaaaaabbaaababbbaabababab
baabaabbbbbbbbbabbaabaaababaabab
aababbbbaaaabbaababaaaaabaabbbabbbababaaaabaaabbaaaabaabababbbabbabaabbabaabaaaa
aababaaaabbbababbbaabaabbbbababbbbaaabababababba
bbbbbbabbabbababaaaaabaabaabbbaabbaaabababbaaaab
abbaabbbaabbbbabbbabbaba
bbaababaabaabbbbbabababb
aabaabbbbbbbbbbababbababbbbbababbabbaaab
bbabbaabaabbaabababaaaabbabbaaaaabaaabab
babbaaaabbabbabbabbaabab
bbbababbabbababbbabbaabb
aaababbabaaaaaababbbabba
babaabaabaaababaaabaaabaaaabbabb

1728
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pnglkx nfnzx tjsdp jkbqk rpmqq gzgvdh rgdx szsbj xjdhk zfml ddbmq thvm mvnqdh gsgmdn dtlhh rqqfnlc bxv nthhxn hnmjfl ckqq qrsczjv fkh hkxcb rpcdfph flhfddq qspfqb zmb rpmmv zrgzf jfqqgtl xxfgvz kltcm xjrpr vnfmc xhmmt zkzdrn jmdg xgbvk ngqh hlmvqh djpsmd bnzq rbvdt tfmgl pjln (contains sesame, nuts)
qchnn dnpgcd zfml thvm gsgmdn frld nfnzx nqfc xbpb kltcm ljmvpp mrfxh zntrfp gzgvdh rrbndl pptgt rknm qsgb mstc ckqq zzldmh nggcjr bkd zfsks hlmvqh cxzkmr zmb tzjnvp npbnj lh pfqxsxd clqk rpmmv szsbj mnvq cnghsg jdtzr kfsfn jxjqp knqzf lvjpp qdpbx qrsczjv xxfgvz ngqh zrgzf jvvmcq zmcj dsmc xhmmt (contains sesame)
hlmvqh klmjmz clqk qrsczjv pjln lvjpp tbm thvm rqqfnlc gzgvdh klx sfk bnzq mhrm vht pjqdmpm tfmgl cxzkmr ghr rxrgtvs rfh rhrc vnfmc ljhn fbcds rkzhxmh htllnq zrgzf xhmmt rcr dgrrm xlzqfb xlnn ckqq vpgvm zntrfp jmdg pgqxp xjrpr vnmfg vqrjn thcs mnvq rczbvg bkd zqsc ngqh rpmqq zmcj cbbkfx rpcdfph mrfxh jfqqgtl mszc tzjnvp sdccxkt rcvd pcf xzcdnr jgtrnm zfcvnj dsmc gjqfj gtgrcf nthhxn jngghk hnmjfl qspfqb bxv (contains eggs)
nthhxn htllnq pbn qsgb mrfxh zrgzf dvcfx mstc jngghk xddkbd dpfphd zhghprj rfh ljmvpp vtljml pmtfmv zmb xxfgvz crnfzr xbpb jmdg tshn nqfc kmsh rknm hkqp pjqdmpm pjln ddbmq bjvcg zntrfp vnfmc qszmzsh fhtsl tjsdp kfsfn jkbqk thvm mnvq dnpgcd xzcdnr xjrpr rbvdt vht jxjqp zzldmh cnghsg pzxj jfqqgtl ckqq kqzcj lxr glrc dgrrm cxzkmr clqk xjdhk hlmvqh vpvj lbfgp klmjmz (contains dairy, peanuts, eggs)
rqqfnlc vgp tbm tjsdp tshn zzldmh zrgzf vgjbgj pptgt xnfhq pbn rpmmv dnpgcd qszmzsh rbvdt nzlks xddkbd thvm npbnj lxr szsbj dtlhh mrfxh ljmvpp xjzc zmb pjqdmpm rknm rrbndl xhmmt hlmvqh jmdg pjln pfqxsxd jdtzr jnr jkbqk vht vhcnpg ckqq ddgdhg pzxj ljhn xgbvk qfkjsq zhghprj gzgvdh xzcdnr ddbmq rcvd lbfgp mvnqdh rfh nggcjr gjqfj hrfmdk (contains dairy)
cmnb cnghsg cxzkmr vfkpj pgb xddkbd qfvfzg gzgvdh bxv zfml clqk pbn nthhxn jmdg ckqq rvchbn xbpb sfk dtlhh rqqfnlc rhrc djpsmd qrftr gjqfj bjvcg zntrfp qrsczjv thvm zlgztsbd lbfgp vnmfg jkbqk lvjpp pfqxsxd ljmvpp mrfxh mnvq ljhn fkh ddrd hlmvqh qmmt rcr vht xgbvk ddbmq tbm vhcnpg srgnx zrgzf ngqh mhrm pptgt glrc rpmmv kx htllnq (contains soy, shellfish)
fdf tshn zhghprj xjzc xxfgvz nggcjr hkqp vgjbgj ckqq hnmjfl mstc dmxhhd rpmmv jdtzr klx ngqh gtgrcf bjvcg vgp jgtrnm ttxx bcvmz pgqxp nfnzx sjgx zfcvnj tzjnvp qmmt jmdg qdpbx zmb rhrc gmc zfsks ljmvpp gjqfj fjgxv zttx lbskg vnfmc vfkpj lxr hkxcb dln xbpb sfk vpgvm thvm ljhn rknm rfh mgxzl thcs jfqqgtl bkd sdccxkt zzldmh mrfxh rcvd qchnn xhmmt rkzhxmh xgbvk csfmx zrgzf qrsczjv gzgvdh ncqdr rxr vtljml lbfgp pzxj djpsmd dpfphd rczbvg knnmm xmjlsn (contains nuts, dairy, sesame)
klx hkqp lqmfgp mstc mgxzl cxfzhj xxfgvz qrsczjv jxjqp ljhn pcf mrxg jmdg bjvcg vht lbskg tphtz nldzpc tjsdp mszc hlmvqh sfk dln ghr mppf lbfgp zkzdrn qdpbx bnzq qsgb rrbndl nggcjr zttx qjsbk llgsg srgnx dbx stcsp rcr zfml jvvmcq pptgt gmc fkh xjdhk pzxj zntrfp flhfddq knqzf ddrd jmgt fdf thcs lh mrfxh xmjlsn kglr pjqdmpm kx dpfphd vqrjn vhcnpg rxrgtvs pfqxsxd nqfc ckqq cbbkfx dtlhh thvm zmb qmmt xlzqfb rpmmv jfqqgtl gsgmdn bcvmz mnvq fbcds xjzc gtgrcf (contains nuts, sesame)
gzgvdh vbqbkt fjgxv nggcjr jvvmcq pptgt fmvvb zqsc hlmvqh rbvdt llgsg xddkbd rfh pjln tzjnvp glrc zmb rqqfnlc zttx qrsczjv rrbndl qfkjsq mppf rxrgtvs lvjpp dtlhh zfml stcsp zkzdrn vtljml qdpbx zrgzf fstgc xlnn sdccxkt hkxcb kltcm xlzqfb jfqqgtl npbnj bcvmz rknm ngqh xbpb rcr thvm kglr dbx xxfgvz bjvcg rpmmv srgnx ckqq gjqfj tshn gmc vgp dgrrm ljhn knnmm qkgqv mstc pnglkx flhfddq tjsdp jmdg zntrfp vgjbgj bkd (contains soy)
qjsbk fkh xddkbd fjgxv lbfgp rxr ckqq tphtz vhcnpg klmjmz pmtfmv jmdg hrfmdk dbx fbcds jnr xxfgvz pfqxsxd qfvfzg bxv flhfddq rknm rpmqq pjln sdccxkt pgb klx jdtzr zmb thvm hlmvqh lxr zrgzf nthhxn vnmfg jgtrnm nfnzx zzldmh ddbmq nldzpc tvqbhv dznd dnpgcd cmnb vpvj sjgx xjzc hkxcb szsbj dcbk pmvl pjqdmpm mhrm rgdx jfqqgtl zttx vtljml mrfxh cbbkfx knqzf mszc jkbqk xbpb vgjbgj pptgt vfkpj vqrjn zhghprj xnfhq tshn rcvd xjdhk djpsmd rfh glrc rkzhxmh (contains wheat, dairy)
mvnqdh nqfc bjvcg ckqq zfcvnj jmdg ljhn hkqp srgnx zfsks bxv xbpb rkzhxmh cxfzhj rpmqq zdntns dnpgcd thcs lvjpp klx jngghk flhfddq gmc pjln dcbk cbbkfx vbqbkt qchnn tshn fhtsl qmthj jvvmcq ncqdr jmgt csfmx qrsczjv tzjnvp rczbvg rcr hlmvqh rbvdt gtgrcf thvm cnghsg zrgzf rxrgtvs zmb (contains peanuts, soy)
ckqq frld mvnqdh tphtz bjvcg xzcdnr djpsmd ttxx dcbk qdpbx tshn rczbvg vpvj qmmt ddrd dln bxv zrgzf jxjqp lh mgxzl qrsczjv ltvr pbn nggcjr dsmc llgsg knnmm pzxj cnghsg thvm vnmfg mhrm xlnn gjqfj pptgt jkbqk htllnq jmdg xnfhq klx jmgt mrfxh rxr hnmjfl lqmfgp qrftr mppf sjgx rvchbn lvjpp mstc zqsc gmc kmsh rpmmv crnfzr hrfmdk kglr hlmvqh cxzkmr dvcfx (contains shellfish, eggs, dairy)
xjrpr mjpt cbbkfx rpmqq ljhn jmdg vht sdccxkt ngqh bnzq jgtrnm fmvvb mrfxh xxfgvz jfqqgtl tfmgl bcvmz pgqxp thvm crnfzr xddkbd zfsks qrsczjv pzxj tshn fbcds lbfgp thcs hkqp gsgmdn dvcfx zmb cnghsg csfmx vhqfz rxr bxv xjdhk zhghprj dtlhh ckqq qmthj jxjqp rczbvg gmc sfk ttxx ltvr pnglkx dnpgcd qsgb clqk klmjmz lh rvchbn pjln knqzf vnfmc qspfqb nthhxn zqsc mhrm gzgvdh ncqdr zrgzf ddrd vqrjn (contains nuts, shellfish)
rvchbn vhcnpg mstc zrgzf hkqp bnzq xbpb qrsczjv fhtsl fjgxv ddgdhg jfqqgtl rpmqq dpfphd pcf qrftr ngqh vht dvcfx dfrg tphtz mnvq qjsbk mvnqdh zntrfp xjzc jmgt xzcdnr vnfmc xddkbd fkh kmsh xmjlsn ckqq zfsks bcvmz ljhn gmc rrbndl fmvvb cxzkmr lh zdntns pgb thvm xxfgvz hrfmdk dln mrfxh tvqbhv cnghsg vpgvm hlmvqh mjpt jdtzr dgrrm kglr pgqxp kqzcj hkxcb xgbvk djpsmd tshn klmjmz rfh xlnn bjvcg qfkjsq rkzhxmh glrc clqk gjqfj jmdg knqzf ljmvpp csfmx rbvdt zfcvnj dsmc fstgc (contains dairy)
nthhxn vnfmc dsmc vpvj rhrc zfcvnj zdntns qmthj knnmm rpmmv dtlhh qdpbx zhghprj xddkbd mrfxh rqqfnlc dpfphd xhmmt dgrrm pgqxp zmb gmc flhfddq zkzdrn hlmvqh qrsczjv vhcnpg mjpt fbcds thvm ncqdr pjln zttx hrfmdk xlnn dvcfx fkh mszc klx cmnb zfml zrgzf mnvq rcr bjvcg csfmx xlzqfb ckqq (contains sesame, shellfish)
xnfhq hlmvqh lh qdpbx rpcdfph qsgb rpmqq tjsdp ljhn gsgmdn vfkpj jmdg xlzqfb ckqq qmmt jmgt dvcfx zrgzf bkd pmvl ngqh sjgx dpfphd kfsfn mrfxh bjvcg jkbqk qrftr mjpt vnmfg nldzpc ncqdr jvvmcq pptgt pjqdmpm thvm pjln ddrd csfmx kglr xgbvk tzjnvp bxv htllnq fstgc zfcvnj jxjqp pbn dsmc kbtx vqrjn rqqfnlc rxrgtvs hnmjfl qrsczjv (contains eggs)
mvnqdh klx rbvdt kx qmthj hrfmdk bcvmz fhtsl zrgzf xxfgvz pmvl csfmx hkxcb rpmqq vpvj jmgt vbqbkt lxr hlmvqh zhghprj kglr dpfphd xzcdnr mszc vgp dvcfx gzgvdh ncqdr mppf nldzpc djpsmd pnglkx mrfxh lqmfgp sjgx jfqqgtl dln vhcnpg npbnj cmnb hnmjfl kfsfn vtljml qspfqb xlzqfb dcbk jngghk lh jxjqp rxr jdtzr qrftr fbcds thvm mrxg zzldmh qfvfzg dtlhh hkqp dsmc qdpbx cxzkmr tfmgl xjrpr pjqdmpm rczbvg rcvd lbfgp jmdg qszmzsh glrc qkgqv tvqbhv qrsczjv fkh rknm ckqq zntrfp cbbkfx (contains shellfish, dairy)
zqsc zmb sfk thvm lvjpp ddgdhg qrsczjv qspfqb dmxhhd zzldmh xzcdnr xjdhk dznd qfvfzg ljhn ghr zrgzf bcvmz frld pnglkx fhtsl srgnx jfqqgtl fdf vhqfz qsgb jkbqk ckqq xxfgvz pjqdmpm rpmqq jmdg fkh crnfzr mjpt cnghsg qrftr xddkbd rkzhxmh pfqxsxd mhrm gtgrcf hlmvqh fmvvb tvqbhv dgrrm xbpb qmthj gjqfj kqzcj tshn qkgqv vfkpj kmsh pgqxp ddrd glrc xgbvk hrfmdk rgdx bnzq knnmm qchnn vnmfg ncqdr qfkjsq pmtfmv xnfhq sjgx cbbkfx stcsp rbvdt mstc gzgvdh kglr dsmc rrbndl xjzc rpcdfph (contains nuts)
rbvdt jmdg zkzdrn zmb hnmjfl gmc pgqxp lqmfgp knqzf xbpb fmvvb bkd dgrrm vgjbgj dcbk ttxx dtlhh vpgvm xlnn hlmvqh jgtrnm dpfphd qrsczjv xzcdnr jngghk qmmt thvm flhfddq gzgvdh crnfzr qszmzsh xlzqfb dfrg qspfqb qmthj rpcdfph frld zqsc xjdhk dmxhhd ljhn qchnn bnzq kltcm gtgrcf mszc zhghprj rhrc csfmx mrxg klmjmz lbskg ckqq pzxj nggcjr nthhxn nldzpc rpmqq dbx mhrm zrgzf xjzc (contains dairy, wheat, eggs)
lh sfk jvvmcq szsbj fmvvb xxfgvz sjgx jnr vqrjn gmc cnghsg qsgb jmdg mppf jfqqgtl fjgxv vbqbkt zqsc xgbvk pgqxp nqfc jmgt rfh xlnn rhrc nfnzx rpcdfph qszmzsh kglr zmb xnfhq thvm tbm zzldmh rcvd pmvl kqzcj hnmjfl nggcjr qrsczjv qchnn zmcj rvchbn fdf xmjlsn mnvq mgxzl rkzhxmh bxv ngqh xlzqfb gjqfj sdccxkt clqk cmnb rbvdt jkbqk dpfphd mrfxh hlmvqh kltcm ckqq jngghk mszc (contains sesame)
zfcvnj mvnqdh gjqfj htllnq nggcjr vtljml qrftr fstgc xjrpr dvcfx klmjmz thvm qjsbk rcvd hrfmdk rczbvg mjpt ncqdr kbtx nqfc xxfgvz xlzqfb mrfxh zmb jkbqk jmgt rxrgtvs qspfqb rhrc qmthj mszc ghr fmvvb cxfzhj lqmfgp ckqq zrgzf vfkpj tzjnvp mhrm vpvj pgqxp ngqh xlnn hlmvqh xnfhq tbm zqsc jvvmcq rvchbn lxr qrsczjv vgp cmnb pjqdmpm (contains dairy)
qfvfzg ngqh rhrc nthhxn mvnqdh rcr knnmm zmcj nfnzx stcsp nzlks qdpbx kfsfn nldzpc mrfxh cxzkmr fkh vpvj llgsg pgb cmnb ncqdr qchnn zrgzf rknm xjzc zntrfp mstc clqk gsgmdn jnr ljhn mppf hkqp jmdg xlnn xgbvk csfmx rpmmv fmvvb mjpt thvm zlgztsbd dtlhh dln bnzq klmjmz tfmgl vgp qmmt kglr dbx gzgvdh rcvd kmsh rgdx kqzcj ttxx tzjnvp qmthj hlmvqh zfsks qrsczjv lh vhcnpg pgqxp zmb zhghprj vht rxr vbqbkt pcf gtgrcf zzldmh dvcfx (contains wheat)
vfkpj kbtx qkgqv bkd srgnx rcr zdntns tjsdp kfsfn rhrc mstc vtljml zlgztsbd rbvdt zrgzf glrc qfvfzg rkzhxmh ddbmq pbn flhfddq dfrg kglr clqk rxrgtvs cxzkmr mrfxh ddgdhg cmnb hlmvqh rpmmv dln zttx pjln zmb pjqdmpm jmgt ckqq qdpbx rcvd thvm rrbndl vbqbkt xmjlsn lh xhmmt qmthj nzlks pgb xzcdnr mrxg xgbvk fkh vgp rqqfnlc gjqfj gsgmdn tbm szsbj bxv lxr cnghsg jfqqgtl dbx pmtfmv lvjpp xjzc xlnn dtlhh dsmc vnfmc qrsczjv zkzdrn ghr fhtsl (contains dairy, wheat, peanuts)
nldzpc pbn rxr vgp zmb pgqxp zfsks vfkpj tvqbhv qmmt pjln jmdg qfkjsq hnmjfl mrxg hlmvqh dln nqfc lbfgp rcr kfsfn vtljml rxrgtvs tbm dsmc hkqp lh jngghk vbqbkt thvm fbcds clqk pjqdmpm ckqq mppf tzjnvp xhmmt csfmx rpcdfph sdccxkt kbtx knqzf rkzhxmh qrsczjv mszc ttxx klx mrfxh mnvq (contains dairy, sesame)
rgdx tfmgl gmc fstgc ltvr ckqq pnglkx kglr hkqp ddgdhg qfkjsq xzcdnr jnr xxfgvz hlmvqh zhghprj ghr pfqxsxd ljmvpp zmb cmnb nldzpc dznd xlnn zrgzf lh zfcvnj dcbk kmsh xjrpr qjsbk nzlks gtgrcf kfsfn dpfphd rqqfnlc mppf zzldmh thcs cbbkfx jmgt rcr pjln mrfxh jxjqp fmvvb pmvl mgxzl knqzf rbvdt gzgvdh jmdg qrsczjv nqfc vnmfg qszmzsh tjsdp ljhn qrftr ddbmq bkd fbcds (contains wheat, peanuts)
clqk rpmmv rkzhxmh pbn mrfxh pmvl hkxcb mvnqdh kbtx tzjnvp ncqdr kmsh dcbk zrgzf qchnn bkd kqzcj hlmvqh thvm cmnb mjpt knnmm pzxj frld gsgmdn pfqxsxd ltvr lqmfgp fkh rbvdt vgjbgj nldzpc jgtrnm dbx qrftr zdntns lbskg rpcdfph djpsmd vbqbkt dsmc jdtzr qmthj zmb hnmjfl sfk mppf fmvvb rcr xmjlsn qrsczjv csfmx dln vqrjn xbpb stcsp fdf rxrgtvs mstc jmdg ljhn npbnj thcs ddbmq knqzf dgrrm rqqfnlc mszc jnr lbfgp qsgb dtlhh pgb bcvmz qszmzsh rfh gjqfj xlzqfb rxr (contains peanuts)
clqk csfmx lvjpp kqzcj thvm zntrfp dcbk ghr vtljml pfqxsxd pjqdmpm jgtrnm flhfddq zzldmh llgsg nthhxn mjpt zrgzf pjln dznd mnvq bjvcg nfnzx tzjnvp vgp dtlhh qmmt rpmmv jmdg zfcvnj xzcdnr zmb tbm dbx bxv cxzkmr tfmgl mszc ttxx qkgqv qjsbk ckqq pgqxp zfml mhrm vpvj jdtzr mgxzl tvqbhv qfvfzg vhcnpg lbskg lqmfgp cnghsg rcvd hnmjfl zhghprj hlmvqh xjrpr xxfgvz dln gtgrcf sdccxkt kx qspfqb jfqqgtl pptgt dmxhhd rpcdfph fstgc rcr fmvvb ljmvpp mrxg gmc pgb mrfxh kmsh cmnb (contains soy, wheat, eggs)
klx nggcjr xjrpr zdntns kltcm vhcnpg xlnn kqzcj hlmvqh dnpgcd vht rpmmv bnzq hnmjfl lbskg fdf bkd dgrrm rvchbn mgxzl pgb jdtzr dcbk qszmzsh rpmqq hrfmdk qrftr dpfphd lxr ngqh xddkbd qrsczjv tbm vqrjn qchnn vpvj mstc ckqq pbn zrgzf jxjqp jgtrnm tfmgl zmb rqqfnlc xmjlsn rxr pmtfmv zmcj zfsks zqsc crnfzr jmdg fbcds mrfxh xgbvk hkxcb gmc nldzpc nfnzx xnfhq (contains peanuts, eggs, nuts)
csfmx zzldmh dcbk fdf rhrc fjgxv qchnn cxzkmr qmthj crnfzr nqfc zmcj mhrm ltvr sdccxkt flhfddq cbbkfx cmnb qdpbx thvm xmjlsn fhtsl knqzf bxv nggcjr vnmfg zmb cxfzhj jdtzr pnglkx jmdg lxr kmsh vgjbgj mrfxh dln mppf gzgvdh rpmmv zntrfp zrgzf pgqxp ckqq zfml vnfmc vht pmvl xlzqfb rxrgtvs kltcm pzxj dsmc dtlhh hrfmdk qmmt dnpgcd bjvcg gsgmdn cnghsg xhmmt gmc ttxx qjsbk hlmvqh fkh vhqfz xxfgvz (contains dairy, sesame, eggs)
jmgt mppf ttxx dsmc xnfhq bxv kglr bcvmz ckqq jmdg dfrg jnr mnvq ngqh sfk fdf xhmmt fjgxv zfcvnj rczbvg cmnb xjrpr szsbj dvcfx gtgrcf knqzf pjln mrfxh lbfgp vnmfg jdtzr mhrm fstgc tbm djpsmd pnglkx qkgqv zmb vfkpj hkxcb qfkjsq pgqxp xzcdnr nfnzx npbnj rbvdt jfqqgtl hlmvqh qfvfzg jvvmcq hnmjfl thvm rgdx gjqfj zhghprj kqzcj rcr zrgzf tvqbhv tshn (contains peanuts)
rknm lvjpp cnghsg qrsczjv sdccxkt zrgzf rcvd rxrgtvs stcsp thvm fstgc ttxx pmvl rpcdfph dznd ckqq pptgt mstc rpmmv fdf knnmm jnr bjvcg mnvq qdpbx zfml rqqfnlc zqsc zhghprj mgxzl qmmt fkh rxr dsmc lbskg sfk xhmmt kqzcj vfkpj mhrm hlmvqh mrfxh pcf zmb jmgt ljmvpp jfqqgtl szsbj xjrpr vnfmc qszmzsh dbx mszc xlnn qrftr qchnn mjpt zttx ddgdhg gmc djpsmd zfcvnj dln qkgqv rcr dnpgcd tzjnvp hkxcb zmcj lxr bcvmz fhtsl vnmfg vpgvm (contains dairy, sesame)
rgdx jmdg cmnb thvm fstgc pfqxsxd ncqdr dmxhhd glrc xjrpr rkzhxmh fhtsl mrfxh hkxcb pmtfmv zfsks knnmm pgb vnmfg thcs dfrg ddbmq clqk zntrfp nthhxn xjzc dgrrm lvjpp rpmmv vht lh jfqqgtl vgp mszc rczbvg jnr jngghk xhmmt vhqfz bcvmz zmb ckqq tjsdp bkd xlzqfb xddkbd pmvl qrsczjv ddgdhg djpsmd ttxx zfcvnj mjpt nldzpc qrftr kx xnfhq fjgxv jmgt ljhn mrxg pbn sdccxkt rxrgtvs dln dpfphd zrgzf tbm rfh tvqbhv (contains sesame, dairy, shellfish)
rczbvg cxfzhj lxr mgxzl hkxcb kbtx zmb jvvmcq pmtfmv jfqqgtl jxjqp mszc thvm rknm jmdg vfkpj qmmt hlmvqh ltvr cnghsg pjln mrfxh gzgvdh szsbj pgb dcbk lvjpp qchnn bcvmz sdccxkt llgsg xgbvk mrxg ghr zhghprj hkqp thcs zrgzf zzldmh ckqq frld gtgrcf pnglkx clqk kglr xhmmt hnmjfl qjsbk qfvfzg dnpgcd dbx djpsmd qrftr rgdx tvqbhv ncqdr (contains eggs)
pmvl zmb zrgzf rxrgtvs mvnqdh dznd srgnx qmmt pgb jmdg hlmvqh dgrrm xjdhk klx rcvd qrsczjv cnghsg ttxx hrfmdk qspfqb pfqxsxd fmvvb pzxj sfk rbvdt nggcjr zqsc npbnj kglr xddkbd lbskg lqmfgp mrxg mrfxh zfml rkzhxmh jfqqgtl vgjbgj rpmmv tphtz mszc dln zfcvnj vpgvm tzjnvp rhrc nldzpc rknm tshn jgtrnm mppf fjgxv ckqq ddgdhg vpvj fbcds (contains shellfish)
xlzqfb nthhxn dln rczbvg jmdg vgp cbbkfx gsgmdn jvvmcq glrc klmjmz stcsp bcvmz dbx vpvj cmnb sjgx rfh rrbndl mgxzl jnr rhrc thvm xlnn mhrm mrfxh bxv qrftr lvjpp fjgxv kglr cxfzhj zmb pptgt ghr kbtx pnglkx qjsbk ckqq jfqqgtl fstgc dznd qszmzsh jgtrnm zrgzf tjsdp klx pjln vgjbgj vbqbkt zkzdrn sfk qrsczjv vhqfz hrfmdk kltcm vnfmc zqsc xhmmt knnmm qfvfzg xjrpr nqfc jkbqk (contains nuts, sesame)
jgtrnm bxv fbcds dznd bkd ttxx rpmqq ckqq pmvl dtlhh xjdhk zdntns knnmm vqrjn dsmc lqmfgp ltvr jfqqgtl mszc xhmmt szsbj crnfzr fkh rbvdt pjqdmpm nggcjr qrftr bcvmz qmmt srgnx xddkbd rvchbn zmb cmnb pptgt xjzc llgsg rxr bnzq gsgmdn thvm zzldmh rcvd mrfxh dgrrm zfsks qsgb tvqbhv zkzdrn nzlks lh klmjmz rxrgtvs kqzcj mnvq ngqh rczbvg tshn tjsdp hlmvqh pcf fdf rfh pnglkx hkqp zrgzf jkbqk sdccxkt fstgc vpvj ddbmq zttx xlzqfb qfvfzg frld qrsczjv zlgztsbd xnfhq pfqxsxd cxfzhj cxzkmr tphtz clqk (contains shellfish, peanuts)
hrfmdk nthhxn lh zrgzf thvm rbvdt qdpbx mhrm vhqfz lqmfgp qjsbk vgp qfvfzg szsbj nldzpc vpgvm sdccxkt dgrrm tfmgl zdntns ddgdhg zfsks hlmvqh zmcj pnglkx ncqdr qrsczjv sfk mrfxh rqqfnlc vht mstc pmvl cmnb gmc ckqq jmdg thcs bjvcg nzlks klx jfqqgtl fkh ghr ddbmq htllnq xlnn kglr (contains nuts)
fkh knqzf tvqbhv mrfxh hkqp nqfc mvnqdh xxfgvz gzgvdh vnfmc qrftr qrsczjv ngqh cxzkmr mjpt dvcfx zmcj xddkbd clqk rvchbn dsmc xjzc pfqxsxd dfrg qmmt mhrm flhfddq rrbndl xnfhq hlmvqh jmdg dznd frld jnr djpsmd thvm qjsbk ddbmq qchnn pnglkx dtlhh zhghprj fhtsl vtljml nzlks qszmzsh lqmfgp pbn cmnb rpcdfph kx qkgqv zrgzf tshn zmb zlgztsbd xlnn (contains eggs, nuts, dairy)
gsgmdn zqsc cxzkmr xlnn htllnq vbqbkt pgb pnglkx tphtz jmgt mrfxh qkgqv pjqdmpm glrc sdccxkt rbvdt vht pzxj fstgc bcvmz mjpt dvcfx vpvj ljmvpp pfqxsxd tshn zmcj zrgzf qmmt pcf dpfphd xxfgvz jxjqp rczbvg mgxzl thvm fjgxv hnmjfl rkzhxmh qrsczjv jmdg cnghsg zfml gjqfj tbm lh mppf dcbk zntrfp dbx jvvmcq szsbj pjln xhmmt rcr nthhxn kx fmvvb xzcdnr klx rpcdfph zmb djpsmd jdtzr mnvq hlmvqh bjvcg mrxg (contains eggs)
vqrjn rhrc pzxj pjqdmpm tshn pjln nggcjr ljhn fkh qchnn kfsfn vgjbgj jmgt qkgqv stcsp knnmm dznd pgb csfmx fmvvb ltvr rknm rpcdfph thvm mrfxh qfvfzg zfcvnj zmb clqk kx ghr rpmmv vbqbkt tfmgl dfrg lxr hrfmdk vpgvm zlgztsbd rczbvg tvqbhv jnr qjsbk qfkjsq xxfgvz hlmvqh klx dnpgcd kbtx flhfddq jfqqgtl jmdg ddrd xgbvk rqqfnlc ckqq bnzq mnvq ncqdr dln qdpbx kltcm mppf zttx dbx pmtfmv klmjmz vnmfg pgqxp nthhxn crnfzr dmxhhd xhmmt rgdx mvnqdh gsgmdn nzlks xzcdnr fbcds djpsmd zfsks dpfphd lh ddbmq vfkpj vgp qrsczjv (contains peanuts, eggs, soy)
dsmc hlmvqh rqqfnlc dgrrm lbskg xxfgvz klmjmz jmgt jnr dznd npbnj rrbndl fkh vfkpj dvcfx hnmjfl qrftr pmtfmv kltcm xzcdnr gtgrcf lbfgp bcvmz xddkbd vgjbgj gjqfj kglr qchnn zlgztsbd rcvd xmjlsn bnzq kbtx vnfmc zmb srgnx pptgt llgsg thvm ckqq qrsczjv cbbkfx cnghsg xjzc rbvdt mnvq mrfxh mppf rknm jmdg tzjnvp rfh vgp vpvj nfnzx hkxcb zqsc lqmfgp kmsh dnpgcd sjgx sfk gmc jfqqgtl ltvr vpgvm pmvl qmthj klx tbm rvchbn pfqxsxd xjdhk glrc rczbvg knqzf (contains shellfish, dairy, nuts)
ngqh lxr qrftr nldzpc cbbkfx zdntns xxfgvz srgnx qspfqb zfsks tzjnvp tphtz qrsczjv lbfgp gjqfj xjrpr qfkjsq rfh xgbvk dtlhh mrfxh xjdhk qkgqv hkqp dsmc rczbvg klmjmz ckqq xlzqfb ddgdhg kltcm vhqfz kglr jxjqp xddkbd htllnq gtgrcf zrgzf lbskg gmc szsbj thvm zmb zfcvnj hlmvqh pjqdmpm (contains peanuts, shellfish)
xlzqfb vpgvm flhfddq kbtx zmcj jmdg vhqfz tphtz vqrjn stcsp ckqq rgdx nfnzx nggcjr qrsczjv xmjlsn pgb ngqh pjqdmpm qsgb nldzpc hkxcb klmjmz rpmmv xjrpr zlgztsbd ncqdr zmb rpcdfph qjsbk gzgvdh xnfhq hlmvqh cbbkfx knnmm qfkjsq xddkbd vgp pmtfmv qdpbx cnghsg hrfmdk fjgxv xlnn xjzc mszc ljmvpp zntrfp fdf pcf mnvq thvm bkd fbcds dbx fstgc dln pfqxsxd zrgzf mhrm pbn zttx zhghprj (contains peanuts, eggs, dairy)
nldzpc gmc mjpt knqzf rbvdt zntrfp nthhxn jmdg rxr xzcdnr kx ljmvpp kltcm jmgt gjqfj pgqxp xjrpr zmb qrsczjv hlmvqh dbx dmxhhd pnglkx gsgmdn vhcnpg zrgzf xjzc pjqdmpm rpcdfph lbfgp xgbvk jvvmcq qdpbx nqfc dvcfx thvm rknm kbtx npbnj mrxg klmjmz rrbndl xbpb ncqdr fdf vpvj kglr pptgt mrfxh (contains sesame)
tshn dmxhhd qmthj kqzcj rqqfnlc pcf dgrrm hkqp ckqq flhfddq qmmt thcs vqrjn vht tbm lqmfgp bcvmz fbcds jmdg rbvdt xzcdnr xlzqfb vfkpj mrfxh sdccxkt fstgc fhtsl qfvfzg kmsh dznd zrgzf bxv glrc thvm pmtfmv rkzhxmh zqsc xjzc fmvvb ddbmq qspfqb tjsdp rcvd xgbvk gzgvdh cmnb pptgt ngqh xlnn sjgx mrxg qdpbx rknm hnmjfl szsbj zntrfp gtgrcf fdf kltcm vhcnpg zmb pjln mppf dnpgcd ttxx qrsczjv srgnx qszmzsh (contains shellfish, nuts)

53
2020/input/2020/day22.txt Normal file
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Player 1:
1
43
24
34
13
7
10
36
14
12
47
32
11
3
9
25
37
21
2
45
26
8
23
6
49
Player 2:
44
5
46
18
39
50
4
41
17
28
30
42
33
38
35
22
16
27
40
48
19
29
15
31
20

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872495136

349
2020/input/2020/day24.txt Normal file
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seewwwwwnewswwwnwwwnwnewnenwnwse
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swneneswwwsenwnesenwnwwwnewnwnwww
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wavy turquoise bags contain no other bags.
vibrant beige bags contain 4 drab lime bags, 1 muted violet bag, 5 drab plum bags, 5 shiny silver bags.
plaid green bags contain 2 pale olive bags, 1 dark chartreuse bag, 1 vibrant olive bag, 1 pale bronze bag.
plaid fuchsia bags contain 5 dull teal bags, 4 dark beige bags, 4 shiny teal bags, 5 vibrant orange bags.
vibrant coral bags contain 1 dotted blue bag.
drab tan bags contain 5 drab maroon bags, 5 bright silver bags, 2 dim tan bags.
light gray bags contain 3 dotted crimson bags, 3 dull chartreuse bags, 1 light maroon bag.
mirrored tomato bags contain 5 clear orange bags, 2 striped violet bags.
pale brown bags contain 1 faded fuchsia bag, 2 wavy orange bags, 1 mirrored coral bag, 5 dotted brown bags.
muted maroon bags contain 5 drab gold bags, 2 vibrant aqua bags, 5 bright crimson bags.
light purple bags contain 4 dim teal bags, 3 vibrant bronze bags, 2 dark chartreuse bags, 1 shiny green bag.
muted white bags contain 3 wavy lime bags, 5 muted lavender bags, 1 pale salmon bag, 1 dotted red bag.
plaid yellow bags contain 2 plaid gold bags, 2 faded lavender bags, 2 faded fuchsia bags, 3 faded gold bags.
plaid white bags contain 1 dull cyan bag, 4 pale cyan bags, 1 clear red bag, 5 vibrant orange bags.
wavy teal bags contain 5 wavy violet bags, 5 shiny silver bags.
pale crimson bags contain 1 wavy white bag, 5 clear tomato bags, 2 dark plum bags, 3 bright turquoise bags.
posh green bags contain 2 muted black bags, 3 light magenta bags.
striped maroon bags contain 1 bright green bag, 4 dark coral bags.
pale red bags contain 5 faded turquoise bags, 4 plaid crimson bags, 5 dark aqua bags.
vibrant chartreuse bags contain 2 pale red bags.
faded fuchsia bags contain no other bags.
pale olive bags contain 3 striped blue bags, 5 faded magenta bags, 3 light white bags.
striped tomato bags contain 4 faded plum bags.
shiny cyan bags contain 1 clear tomato bag, 4 clear magenta bags, 3 plaid teal bags, 5 dotted indigo bags.
plaid silver bags contain 3 dotted beige bags.
posh teal bags contain 3 faded black bags, 2 vibrant lavender bags, 5 light lavender bags, 5 faded lime bags.
clear gray bags contain 5 pale black bags, 2 dull salmon bags.
bright white bags contain 2 shiny olive bags, 5 dim brown bags, 1 dull crimson bag.
striped gold bags contain 3 mirrored yellow bags, 1 posh brown bag, 5 clear cyan bags, 3 striped tan bags.
light black bags contain 2 light lavender bags, 2 dotted bronze bags.
vibrant orange bags contain 3 posh plum bags, 5 light tan bags, 5 dim gold bags, 4 vibrant aqua bags.
dark chartreuse bags contain 3 striped purple bags, 2 dull beige bags, 5 wavy brown bags.
mirrored magenta bags contain 4 drab purple bags, 4 dotted brown bags, 2 light fuchsia bags.
striped magenta bags contain 1 drab gray bag, 1 wavy yellow bag, 5 drab plum bags.
dotted teal bags contain 4 pale indigo bags.
plaid red bags contain 4 clear fuchsia bags, 2 vibrant brown bags.
dotted green bags contain 2 striped teal bags, 3 muted bronze bags, 4 light red bags.
vibrant purple bags contain 2 drab plum bags, 4 dim beige bags, 4 drab aqua bags.
light indigo bags contain 1 dotted plum bag.
wavy green bags contain 1 shiny aqua bag, 2 dark lavender bags.
faded gray bags contain 2 plaid green bags.
dull purple bags contain 4 dull salmon bags, 1 plaid chartreuse bag, 1 dull tan bag, 4 pale green bags.
posh yellow bags contain 2 dim teal bags.
pale orange bags contain 4 mirrored red bags, 2 dotted chartreuse bags, 2 light yellow bags, 3 posh red bags.
dark tomato bags contain 1 light magenta bag, 4 light black bags, 2 vibrant aqua bags.
light cyan bags contain 1 shiny red bag, 2 plaid green bags, 4 clear cyan bags, 5 wavy tomato bags.
pale lavender bags contain 2 pale gray bags, 3 dotted violet bags, 2 striped lavender bags, 5 drab magenta bags.
dim coral bags contain 4 bright black bags, 1 shiny tan bag, 1 faded chartreuse bag, 1 bright silver bag.
muted purple bags contain 2 wavy yellow bags.
pale chartreuse bags contain 3 dotted red bags, 4 striped salmon bags, 4 pale brown bags, 2 dull yellow bags.
light red bags contain 3 bright crimson bags.
bright green bags contain 2 plaid fuchsia bags, 5 light lavender bags, 3 dotted cyan bags.
plaid purple bags contain 4 wavy tan bags, 5 plaid teal bags, 5 dull teal bags, 1 shiny gold bag.
vibrant gray bags contain 1 dull beige bag.
dotted orange bags contain 2 light green bags, 5 dotted brown bags, 4 pale blue bags.
dull black bags contain 5 pale silver bags, 4 pale lavender bags.
dull blue bags contain 1 striped turquoise bag, 2 dotted red bags, 5 dark white bags.
clear turquoise bags contain 3 dim beige bags, 5 faded brown bags.
pale magenta bags contain 1 dark violet bag, 1 dark yellow bag, 2 wavy aqua bags, 5 light silver bags.
bright teal bags contain 1 dark beige bag, 1 pale gold bag, 1 dim magenta bag.
pale plum bags contain 3 vibrant yellow bags, 1 dotted beige bag.
dull lime bags contain 1 faded coral bag, 4 plaid gold bags, 3 drab white bags.
vibrant olive bags contain 1 plaid teal bag, 1 faded tan bag.
muted magenta bags contain 5 clear gold bags.
dull olive bags contain 4 clear cyan bags, 1 dotted tan bag.
dim orange bags contain 3 drab lime bags, 1 drab plum bag, 2 vibrant tomato bags, 1 plaid blue bag.
wavy crimson bags contain 2 plaid gold bags, 3 light olive bags, 4 vibrant fuchsia bags.
clear tan bags contain 3 dotted beige bags, 2 dark purple bags.
plaid bronze bags contain 1 mirrored violet bag.
muted brown bags contain 4 dotted indigo bags, 5 dull crimson bags.
dull fuchsia bags contain 2 dotted gold bags, 2 striped violet bags, 1 clear lime bag, 3 shiny fuchsia bags.
mirrored gold bags contain 2 mirrored purple bags, 4 plaid aqua bags.
vibrant turquoise bags contain 1 light maroon bag, 3 dim teal bags, 1 dull brown bag.
shiny green bags contain 2 plaid orange bags.
dark crimson bags contain 1 striped purple bag, 4 vibrant salmon bags.
bright gray bags contain 4 plaid blue bags, 1 faded lime bag, 4 pale salmon bags, 3 bright bronze bags.
wavy salmon bags contain 1 wavy coral bag, 3 bright blue bags.
faded blue bags contain 3 muted fuchsia bags, 1 plaid lavender bag, 3 posh brown bags.
posh tomato bags contain 4 dim gold bags, 2 shiny gold bags.
striped yellow bags contain 3 vibrant turquoise bags, 3 dim salmon bags, 4 vibrant yellow bags, 2 faded beige bags.
light beige bags contain 5 striped purple bags, 3 muted gold bags.
wavy indigo bags contain 1 muted chartreuse bag, 2 wavy purple bags, 2 mirrored coral bags, 4 muted teal bags.
striped tan bags contain 4 light fuchsia bags, 2 dim chartreuse bags, 3 vibrant black bags, 1 muted black bag.
pale fuchsia bags contain 5 vibrant aqua bags, 5 drab purple bags, 5 shiny olive bags, 5 drab indigo bags.
pale cyan bags contain 5 dull teal bags.
dull chartreuse bags contain 5 wavy brown bags.
bright coral bags contain 3 clear orange bags, 3 shiny brown bags, 4 pale teal bags.
light magenta bags contain 3 light white bags, 1 clear indigo bag, 3 vibrant salmon bags, 3 dark crimson bags.
dull bronze bags contain 5 dotted gold bags, 4 dark olive bags, 3 vibrant magenta bags.
light lime bags contain 4 vibrant cyan bags.
muted aqua bags contain 3 dotted red bags, 2 wavy blue bags, 3 vibrant orange bags.
light violet bags contain 3 light green bags.
dotted red bags contain 1 muted teal bag, 4 striped tan bags, 3 wavy teal bags.
pale purple bags contain 4 dotted cyan bags, 1 dim magenta bag.
dim beige bags contain 5 dotted yellow bags, 4 faded magenta bags, 1 muted beige bag, 2 pale bronze bags.
light bronze bags contain 5 faded bronze bags, 2 drab bronze bags, 5 dark gold bags, 2 light purple bags.
wavy violet bags contain 5 light white bags, 3 light tan bags.
vibrant aqua bags contain 3 wavy turquoise bags, 4 dull beige bags.
pale bronze bags contain 5 light lavender bags, 4 dull beige bags, 3 bright crimson bags.
bright salmon bags contain 5 mirrored bronze bags, 5 dull orange bags, 2 shiny salmon bags.
muted blue bags contain 3 shiny yellow bags, 5 light yellow bags, 5 vibrant gold bags, 2 dotted coral bags.
dotted silver bags contain 1 plaid fuchsia bag, 5 light beige bags, 4 drab lime bags.
mirrored black bags contain 2 dull salmon bags.
bright black bags contain 4 faded magenta bags.
bright beige bags contain 2 mirrored salmon bags.
bright indigo bags contain 4 clear brown bags, 3 bright green bags.
mirrored lavender bags contain 3 shiny tan bags, 4 dark purple bags, 2 striped tan bags.
light aqua bags contain 2 light magenta bags, 5 vibrant tan bags, 5 drab plum bags, 1 plaid tomato bag.
mirrored maroon bags contain 4 vibrant tomato bags.
posh turquoise bags contain 1 striped white bag, 3 dim lavender bags, 3 posh teal bags, 2 mirrored salmon bags.
shiny gray bags contain 1 vibrant beige bag, 3 light tan bags, 4 wavy teal bags.
wavy black bags contain 4 dark tomato bags, 3 dim gold bags, 4 dark beige bags.
drab silver bags contain 2 light green bags, 3 light gold bags, 4 drab plum bags, 1 dotted yellow bag.
pale violet bags contain 1 dull beige bag, 2 shiny teal bags, 1 light lavender bag, 3 mirrored red bags.
dark blue bags contain 1 dotted indigo bag, 1 clear tomato bag.
dull teal bags contain 5 vibrant salmon bags, 3 vibrant aqua bags, 5 wavy tan bags, 5 striped purple bags.
faded tomato bags contain 2 shiny chartreuse bags, 4 clear orange bags, 5 bright orange bags.
mirrored red bags contain 5 muted beige bags, 2 faded white bags.
mirrored lime bags contain 4 posh crimson bags, 5 pale turquoise bags, 3 wavy blue bags.
mirrored crimson bags contain 1 faded white bag, 2 dark crimson bags, 3 striped cyan bags.
light teal bags contain 3 clear indigo bags, 1 wavy tan bag, 4 dim gold bags.
wavy chartreuse bags contain 5 wavy plum bags, 2 shiny salmon bags, 3 clear olive bags.
shiny black bags contain 2 drab aqua bags, 4 dull brown bags, 5 wavy silver bags, 1 vibrant brown bag.
bright violet bags contain 2 striped magenta bags, 4 vibrant gray bags.
muted tomato bags contain 1 drab turquoise bag.
muted teal bags contain 3 dotted blue bags.
dim cyan bags contain 3 dotted blue bags, 1 vibrant coral bag.
striped fuchsia bags contain 1 shiny gold bag, 5 dark beige bags, 5 mirrored indigo bags.
clear bronze bags contain 3 striped orange bags, 2 vibrant tomato bags.
vibrant lavender bags contain 2 muted beige bags, 4 shiny teal bags, 4 dull beige bags.
light olive bags contain 5 shiny yellow bags, 1 vibrant cyan bag.
shiny fuchsia bags contain 4 dim brown bags, 2 dull chartreuse bags.
plaid turquoise bags contain 3 bright green bags, 4 light fuchsia bags, 2 light lavender bags.
shiny brown bags contain 5 mirrored plum bags.
pale white bags contain 4 dull magenta bags, 1 posh purple bag, 4 pale olive bags, 4 wavy olive bags.
pale yellow bags contain 1 bright blue bag.
dark salmon bags contain 3 wavy turquoise bags, 1 dotted plum bag, 3 faded white bags, 5 dim tan bags.
shiny crimson bags contain 5 faded coral bags.
pale green bags contain 2 posh beige bags, 5 dark silver bags.
dim gray bags contain 4 dull cyan bags, 2 muted salmon bags, 4 mirrored tan bags, 1 bright violet bag.
dim blue bags contain 4 light orange bags, 4 wavy beige bags.
mirrored cyan bags contain 3 pale cyan bags.
dark aqua bags contain 2 striped blue bags, 5 light white bags, 4 drab gray bags.
wavy tan bags contain no other bags.
light tan bags contain 1 clear aqua bag.
light silver bags contain 1 light green bag, 2 pale bronze bags, 1 bright crimson bag, 1 vibrant aqua bag.
plaid tan bags contain 5 posh silver bags, 1 shiny beige bag.
shiny white bags contain 1 pale olive bag.
dotted brown bags contain 1 bright silver bag, 5 light tan bags, 4 light coral bags.
shiny bronze bags contain 2 vibrant plum bags, 2 wavy teal bags, 1 bright red bag, 5 clear tomato bags.
striped violet bags contain 5 vibrant gray bags, 3 dark maroon bags, 4 dotted fuchsia bags, 4 plaid purple bags.
dull plum bags contain 4 dark gray bags, 1 wavy aqua bag, 2 muted aqua bags, 5 striped crimson bags.
posh blue bags contain 1 dotted bronze bag, 5 muted indigo bags, 2 light tan bags.
posh tan bags contain 4 shiny gold bags, 3 drab maroon bags.
striped aqua bags contain 4 muted bronze bags, 5 bright blue bags, 1 wavy tan bag.
shiny silver bags contain 1 light green bag.
dark white bags contain 4 drab purple bags.
dull green bags contain 5 wavy bronze bags, 5 faded white bags.
clear chartreuse bags contain 3 dark gray bags.
posh coral bags contain 2 shiny lime bags, 4 light blue bags, 3 muted bronze bags.
faded magenta bags contain 1 dull maroon bag, 4 shiny teal bags, 1 plaid teal bag.
drab brown bags contain 1 drab violet bag.
pale salmon bags contain 4 plaid gray bags, 2 wavy violet bags.
mirrored aqua bags contain 1 faded turquoise bag, 5 dull aqua bags.
striped gray bags contain 5 dark maroon bags, 3 shiny plum bags.
mirrored salmon bags contain 4 clear cyan bags, 2 vibrant olive bags, 2 striped silver bags, 3 muted lavender bags.
wavy purple bags contain 1 shiny beige bag.
plaid indigo bags contain 1 plaid plum bag.
plaid gray bags contain 5 pale blue bags, 3 shiny gold bags.
bright yellow bags contain 2 drab bronze bags, 3 drab teal bags.
drab red bags contain 4 drab indigo bags, 1 mirrored blue bag, 2 dull aqua bags, 4 light magenta bags.
dull white bags contain 2 muted black bags, 1 dim beige bag, 1 dark beige bag.
clear silver bags contain 5 muted bronze bags, 1 muted tan bag, 3 light aqua bags, 1 wavy fuchsia bag.
dark black bags contain 2 pale fuchsia bags, 5 pale brown bags, 5 drab black bags.
mirrored silver bags contain 4 drab plum bags, 3 shiny white bags, 5 muted crimson bags, 5 dull aqua bags.
dim tomato bags contain 3 drab red bags, 1 drab lime bag, 4 striped gray bags.
faded bronze bags contain 5 clear indigo bags, 2 dotted blue bags.
striped crimson bags contain 1 plaid tomato bag, 2 dull yellow bags, 3 plaid purple bags.
wavy olive bags contain 4 mirrored red bags, 4 drab indigo bags.
dotted turquoise bags contain 2 mirrored lavender bags, 4 light maroon bags, 2 pale teal bags, 1 mirrored crimson bag.
muted violet bags contain 5 shiny olive bags.
bright orange bags contain 4 pale tan bags, 1 striped fuchsia bag, 5 shiny olive bags.
striped turquoise bags contain 1 posh salmon bag, 5 shiny indigo bags, 4 wavy violet bags.
dull indigo bags contain 3 plaid plum bags, 4 faded plum bags, 3 dull violet bags.
posh black bags contain 4 clear brown bags, 4 vibrant cyan bags, 1 light white bag.
shiny orange bags contain 5 striped purple bags, 3 muted beige bags.
striped plum bags contain 5 dull salmon bags, 3 dull orange bags, 1 clear lime bag, 3 mirrored indigo bags.
clear white bags contain 4 wavy crimson bags, 3 plaid magenta bags.
pale tan bags contain 5 muted indigo bags.
dark red bags contain 3 bright magenta bags, 1 muted salmon bag, 4 vibrant gray bags, 5 clear green bags.
dark yellow bags contain 3 dim teal bags.
clear aqua bags contain no other bags.
vibrant white bags contain 2 drab yellow bags, 4 vibrant aqua bags, 2 plaid maroon bags.
posh lime bags contain 5 vibrant black bags.
clear teal bags contain 1 shiny olive bag, 5 bright aqua bags, 4 bright violet bags.
dotted indigo bags contain 2 muted fuchsia bags, 3 mirrored gray bags.
posh olive bags contain 5 clear maroon bags, 2 dim teal bags, 2 drab plum bags, 4 shiny olive bags.
dark coral bags contain 4 clear red bags.
dark olive bags contain 4 vibrant black bags.
faded olive bags contain 2 bright gray bags, 5 dull white bags.
dotted purple bags contain 1 faded brown bag, 5 dark purple bags.
faded plum bags contain 2 pale brown bags, 4 dark aqua bags.
bright plum bags contain 2 vibrant brown bags, 1 bright black bag, 1 dotted gold bag.
faded lavender bags contain 4 clear violet bags, 4 striped purple bags.
faded silver bags contain 4 dotted blue bags, 2 light purple bags, 1 bright chartreuse bag, 3 striped white bags.
bright cyan bags contain 5 dotted lime bags, 5 shiny gray bags, 1 faded orange bag, 5 clear indigo bags.
plaid tomato bags contain 1 clear violet bag, 3 muted beige bags.
wavy aqua bags contain 1 light tan bag.
dotted gold bags contain 5 mirrored indigo bags, 5 dull tan bags.
faded teal bags contain 5 plaid black bags, 2 clear turquoise bags.
striped white bags contain 2 dull aqua bags, 1 mirrored violet bag, 4 vibrant salmon bags.
mirrored violet bags contain 2 vibrant salmon bags, 1 clear brown bag.
drab magenta bags contain 3 muted lime bags, 2 bright orange bags.
pale teal bags contain 3 light black bags, 4 dim black bags, 2 muted gray bags.
dark teal bags contain 5 dark tomato bags, 4 dull teal bags, 5 striped white bags, 5 plaid aqua bags.
dim purple bags contain 5 wavy magenta bags, 2 muted fuchsia bags, 5 mirrored bronze bags.
clear violet bags contain 5 wavy turquoise bags, 5 light black bags, 1 mirrored indigo bag, 2 faded white bags.
dim indigo bags contain 3 dull teal bags.
dotted olive bags contain 4 dark red bags, 2 mirrored beige bags.
posh aqua bags contain 1 posh blue bag, 4 dotted black bags, 4 pale tomato bags.
clear orange bags contain 1 striped magenta bag, 3 wavy aqua bags.
plaid cyan bags contain 5 vibrant lavender bags, 2 light gold bags, 2 wavy orange bags, 4 bright turquoise bags.
mirrored green bags contain 4 plaid fuchsia bags.
dark silver bags contain 3 light coral bags.
wavy silver bags contain 5 plaid yellow bags, 5 pale orange bags.
plaid crimson bags contain 4 vibrant salmon bags, 4 vibrant blue bags, 1 light teal bag, 3 bright crimson bags.
mirrored bronze bags contain 1 dark coral bag, 2 clear orange bags, 4 plaid orange bags, 2 vibrant gray bags.
faded aqua bags contain 5 light white bags, 3 drab gray bags, 1 plaid beige bag.
drab yellow bags contain 1 dotted black bag, 2 dim silver bags.
dark beige bags contain 4 wavy tan bags, 5 light lavender bags, 5 dotted bronze bags.
clear green bags contain 5 shiny purple bags, 5 light teal bags, 5 pale bronze bags.
dotted lavender bags contain 4 wavy orange bags, 4 dull chartreuse bags.
bright chartreuse bags contain 2 dotted cyan bags, 3 pale olive bags, 4 vibrant salmon bags.
faded red bags contain 3 dull cyan bags, 3 drab indigo bags, 5 light green bags, 4 dark lime bags.
plaid brown bags contain 2 dotted salmon bags, 3 striped silver bags, 1 light blue bag.
dull beige bags contain no other bags.
dim violet bags contain 3 striped lavender bags, 5 dotted coral bags, 1 clear blue bag.
vibrant red bags contain 1 dark coral bag, 3 light gold bags.
faded violet bags contain 3 pale gold bags.
muted salmon bags contain 3 wavy turquoise bags.
vibrant gold bags contain 2 shiny teal bags.
dull coral bags contain 3 posh gold bags, 4 wavy olive bags.
mirrored fuchsia bags contain 5 wavy lime bags.
dotted plum bags contain 3 bright bronze bags, 3 light coral bags, 5 mirrored orange bags, 4 plaid gray bags.
dim fuchsia bags contain 4 light indigo bags, 5 faded red bags, 5 plaid orange bags.
dull brown bags contain 2 dim gold bags.
faded indigo bags contain 3 wavy olive bags, 1 shiny green bag.
pale coral bags contain 5 faded crimson bags.
light orange bags contain 3 bright gold bags, 1 striped magenta bag, 4 plaid lavender bags, 5 light green bags.
clear salmon bags contain 3 dim tan bags, 1 light lavender bag.
vibrant indigo bags contain 1 dark beige bag, 2 posh purple bags.
clear cyan bags contain 5 posh brown bags.
dull red bags contain 3 drab gold bags, 3 dark aqua bags, 5 dim maroon bags.
dim red bags contain 5 faded black bags, 2 shiny lime bags.
dark indigo bags contain 5 dull green bags, 2 striped white bags, 3 dotted indigo bags.
pale tomato bags contain 4 vibrant gold bags.
dim turquoise bags contain 4 plaid tomato bags, 2 plaid gray bags, 4 shiny violet bags.
dotted yellow bags contain 5 dotted plum bags, 3 muted beige bags, 4 light fuchsia bags, 1 wavy olive bag.
dim gold bags contain 3 muted beige bags.
mirrored orange bags contain 5 drab maroon bags, 4 dull teal bags, 1 faded tan bag, 2 dark aqua bags.
light chartreuse bags contain 4 vibrant gold bags, 5 dark silver bags, 3 pale purple bags.
posh silver bags contain 5 dotted silver bags, 4 dark chartreuse bags, 1 striped magenta bag.
vibrant black bags contain 5 muted red bags, 1 pale purple bag, 2 clear indigo bags, 4 faded magenta bags.
faded maroon bags contain 2 clear cyan bags, 4 wavy orange bags, 2 shiny blue bags.
bright lavender bags contain 5 dull chartreuse bags.
drab black bags contain 1 posh plum bag, 5 mirrored maroon bags, 3 dark yellow bags.
drab gray bags contain 4 clear violet bags, 3 mirrored red bags, 1 light silver bag, 1 wavy turquoise bag.
faded turquoise bags contain 2 light tan bags, 5 faded coral bags.
dark purple bags contain 5 pale cyan bags.
muted beige bags contain no other bags.
dull maroon bags contain 2 wavy turquoise bags, 5 light lavender bags, 5 muted beige bags.
bright tomato bags contain 3 plaid blue bags.
dim crimson bags contain 3 drab turquoise bags, 2 faded crimson bags, 2 plaid chartreuse bags.
clear magenta bags contain 3 light green bags, 5 dotted red bags, 1 mirrored indigo bag, 1 dim brown bag.
dotted aqua bags contain 5 clear crimson bags, 1 wavy orange bag.
dark fuchsia bags contain 1 dull maroon bag.
faded salmon bags contain 2 wavy yellow bags, 3 faded plum bags.
muted chartreuse bags contain 5 light gold bags, 1 bright bronze bag, 5 light beige bags, 4 light black bags.
muted lavender bags contain 3 mirrored coral bags.
drab fuchsia bags contain 3 plaid brown bags.
dim plum bags contain 4 vibrant brown bags, 3 plaid beige bags, 3 dark crimson bags, 4 bright teal bags.
shiny magenta bags contain 1 muted black bag.
wavy magenta bags contain 2 faded lavender bags, 1 bright gray bag, 3 pale olive bags.
mirrored plum bags contain 5 muted maroon bags.
wavy plum bags contain 5 dark crimson bags.
striped lavender bags contain 4 vibrant yellow bags, 2 vibrant lavender bags.
faded beige bags contain 4 pale indigo bags, 5 vibrant tomato bags.
shiny gold bags contain 4 drab gray bags, 4 light coral bags.
dotted beige bags contain 5 drab maroon bags, 1 shiny gold bag, 3 light lavender bags.
dull yellow bags contain 3 pale bronze bags, 1 bright silver bag.
muted green bags contain 3 faded red bags, 2 plaid green bags, 3 plaid black bags, 1 light yellow bag.
vibrant silver bags contain 5 striped purple bags, 3 shiny olive bags, 4 vibrant lavender bags.
dim green bags contain 4 vibrant gold bags, 5 muted maroon bags, 1 plaid aqua bag, 2 posh silver bags.
faded lime bags contain 2 shiny white bags.
bright bronze bags contain 5 muted gold bags, 3 light black bags.
shiny yellow bags contain 5 light green bags, 5 wavy brown bags.
dark cyan bags contain 5 light teal bags, 1 posh yellow bag, 3 shiny aqua bags.
striped blue bags contain 1 muted gold bag, 4 dull maroon bags, 3 clear red bags, 5 faded fuchsia bags.
dim tan bags contain 1 bright tan bag.
shiny red bags contain 3 plaid turquoise bags, 1 dotted cyan bag, 1 pale fuchsia bag.
vibrant brown bags contain 5 dim magenta bags, 4 drab white bags.
dull turquoise bags contain 2 bright orange bags, 4 bright gray bags, 3 dim chartreuse bags.
dark bronze bags contain 3 striped green bags, 2 wavy tan bags, 2 faded lime bags, 3 bright olive bags.
striped green bags contain 4 light black bags, 2 drab bronze bags, 4 dotted bronze bags, 3 plaid orange bags.
dark brown bags contain 5 drab indigo bags, 3 plaid white bags, 1 pale lime bag.
dotted black bags contain 4 dull beige bags, 4 drab lavender bags.
striped cyan bags contain 2 vibrant orange bags, 3 clear violet bags, 2 mirrored gray bags.
clear tomato bags contain 5 shiny gold bags, 1 dim chartreuse bag, 4 dark crimson bags, 5 shiny white bags.
light white bags contain 3 pale violet bags, 4 drab plum bags, 4 drab gray bags, 1 vibrant lavender bag.
plaid black bags contain 4 vibrant orange bags, 5 bright gray bags.
drab salmon bags contain 4 faded coral bags.
shiny maroon bags contain 3 pale black bags, 2 bright magenta bags.
striped black bags contain 1 plaid fuchsia bag, 4 plaid black bags, 1 mirrored beige bag.
muted bronze bags contain 5 faded red bags, 5 plaid green bags.
bright tan bags contain 1 wavy yellow bag, 5 light fuchsia bags, 5 plaid teal bags.
plaid gold bags contain 5 faded black bags, 1 vibrant black bag.
wavy tomato bags contain 5 plaid fuchsia bags, 2 mirrored violet bags, 3 dark yellow bags, 1 bright gold bag.
faded tan bags contain 5 vibrant salmon bags, 5 plaid teal bags, 4 clear aqua bags, 2 pale violet bags.
light crimson bags contain 3 mirrored tomato bags, 5 plaid green bags.
wavy bronze bags contain 1 light teal bag.
faded yellow bags contain 3 clear beige bags, 4 bright bronze bags.
muted gold bags contain 5 plaid teal bags, 2 faded fuchsia bags, 4 bright crimson bags.
shiny tan bags contain 5 dark salmon bags, 5 light red bags.
bright gold bags contain 2 faded chartreuse bags, 2 dim green bags, 3 striped cyan bags.
pale turquoise bags contain 1 pale tan bag, 5 dark violet bags.
wavy orange bags contain 5 plaid teal bags, 1 pale bronze bag, 4 wavy tan bags, 1 clear red bag.
dim silver bags contain 3 dark lime bags, 1 dotted beige bag.
faded cyan bags contain 2 dull maroon bags, 5 clear tan bags, 1 dull coral bag, 2 posh lavender bags.
dim white bags contain 1 dull maroon bag, 3 dull brown bags.
vibrant bronze bags contain 5 faded chartreuse bags.
dotted fuchsia bags contain 4 vibrant salmon bags, 2 faded white bags.
faded gold bags contain 2 dark maroon bags, 2 bright chartreuse bags, 1 dull brown bag.
dim brown bags contain 3 dull yellow bags, 4 faded chartreuse bags, 5 vibrant silver bags.
light yellow bags contain 2 striped silver bags.
striped coral bags contain 1 muted blue bag, 1 dim aqua bag, 4 posh red bags, 5 plaid lime bags.
dark magenta bags contain 2 pale violet bags, 2 vibrant tomato bags, 5 clear orange bags.
posh indigo bags contain 2 clear red bags, 4 clear violet bags, 2 shiny chartreuse bags, 5 dull white bags.
light tomato bags contain 4 clear indigo bags.
light plum bags contain 2 mirrored maroon bags.
drab violet bags contain 5 dark aqua bags, 1 vibrant magenta bag.
pale gray bags contain 1 striped lime bag, 4 clear bronze bags.
dark plum bags contain 2 dark olive bags.
plaid lavender bags contain 4 pale brown bags.
mirrored olive bags contain 1 faded coral bag.
drab green bags contain 2 dull silver bags, 2 clear purple bags, 3 posh violet bags, 2 light blue bags.
bright maroon bags contain 4 faded yellow bags, 4 dotted bronze bags, 2 dark brown bags.
striped purple bags contain 2 faded fuchsia bags, 5 posh plum bags.
wavy gray bags contain 4 dark violet bags, 4 plaid orange bags.
drab plum bags contain 3 light lavender bags, 1 striped blue bag, 5 bright crimson bags.
faded orange bags contain 4 light teal bags, 4 dim chartreuse bags, 2 vibrant yellow bags.
dim salmon bags contain 2 pale coral bags, 1 drab aqua bag.
muted silver bags contain 1 clear chartreuse bag, 2 clear tan bags, 5 dotted tan bags, 4 clear black bags.
muted yellow bags contain 3 wavy blue bags, 1 striped lavender bag.
wavy gold bags contain 5 faded gold bags, 1 shiny green bag, 1 mirrored cyan bag.
dull gold bags contain 1 striped green bag.
bright brown bags contain 4 drab plum bags, 4 pale violet bags, 5 vibrant blue bags.
bright crimson bags contain 2 wavy tan bags, 4 shiny teal bags.
mirrored gray bags contain 2 dull beige bags, 4 light white bags, 5 pale brown bags.
dull tan bags contain 4 dim magenta bags, 1 light teal bag.
mirrored yellow bags contain 1 drab lavender bag, 4 shiny gold bags, 3 drab turquoise bags, 2 light silver bags.
muted indigo bags contain 5 mirrored coral bags, 3 dark crimson bags.
dull aqua bags contain 4 drab lime bags, 3 shiny crimson bags, 1 drab salmon bag.
dim aqua bags contain 2 shiny lavender bags, 5 pale coral bags.
shiny chartreuse bags contain 1 clear maroon bag, 4 shiny blue bags.
dotted magenta bags contain 3 light olive bags.
faded green bags contain 4 faded beige bags, 5 dotted gold bags, 5 striped lavender bags, 5 wavy blue bags.
drab orange bags contain 3 muted fuchsia bags.
dim magenta bags contain 1 shiny orange bag.
shiny olive bags contain 2 wavy aqua bags.
dark orange bags contain 1 clear black bag, 1 faded gray bag.
light lavender bags contain no other bags.
bright turquoise bags contain 2 dull beige bags, 5 shiny teal bags, 5 posh brown bags, 5 dark beige bags.
faded purple bags contain 2 dark white bags, 2 pale salmon bags.
drab olive bags contain 1 dark silver bag, 4 plaid yellow bags, 3 drab gold bags, 2 mirrored yellow bags.
dull gray bags contain 3 vibrant turquoise bags, 5 faded chartreuse bags.
striped bronze bags contain 3 faded turquoise bags, 2 vibrant gray bags, 3 dotted beige bags, 3 dull beige bags.
wavy fuchsia bags contain 2 shiny purple bags, 2 plaid crimson bags, 1 dark cyan bag.
pale aqua bags contain 4 dotted tan bags, 1 dim yellow bag, 5 shiny lime bags.
pale silver bags contain 2 shiny brown bags.
shiny aqua bags contain 1 pale salmon bag, 5 faded chartreuse bags, 1 plaid aqua bag, 4 shiny silver bags.
posh brown bags contain 5 vibrant orange bags, 4 bright silver bags, 5 wavy orange bags, 3 dim chartreuse bags.
striped lime bags contain 5 drab violet bags, 4 light turquoise bags, 2 bright turquoise bags.
muted tan bags contain 2 striped purple bags, 4 posh yellow bags.
drab purple bags contain 2 clear red bags.
plaid magenta bags contain 2 pale blue bags, 5 plaid crimson bags.
mirrored tan bags contain 3 pale purple bags.
light blue bags contain 4 light tan bags.
clear black bags contain 2 pale blue bags, 4 dim gold bags, 2 vibrant gold bags.
light gold bags contain 1 wavy turquoise bag, 3 drab plum bags, 1 clear violet bag.
bright olive bags contain 3 light lavender bags, 1 faded tan bag, 3 shiny gold bags, 1 dotted cyan bag.
dark maroon bags contain 4 muted gold bags, 2 shiny yellow bags.
wavy lime bags contain 3 plaid green bags, 5 mirrored silver bags, 4 mirrored green bags, 3 dotted beige bags.
drab white bags contain 3 clear red bags, 3 bright silver bags, 4 posh red bags, 2 shiny blue bags.
clear lime bags contain 4 dotted orange bags.
vibrant maroon bags contain 2 dull orange bags, 5 vibrant crimson bags.
pale black bags contain 1 pale cyan bag, 5 dim tan bags, 4 shiny purple bags, 4 faded fuchsia bags.
vibrant tomato bags contain 2 mirrored orange bags.
dotted gray bags contain 3 dotted purple bags.
drab gold bags contain 4 shiny gold bags.
mirrored teal bags contain 3 shiny magenta bags, 3 mirrored beige bags, 3 dotted silver bags, 5 mirrored indigo bags.
posh lavender bags contain 2 wavy teal bags, 4 striped violet bags, 1 vibrant gold bag.
dark lavender bags contain 3 light blue bags, 2 muted beige bags, 3 clear magenta bags, 1 light tan bag.
muted cyan bags contain 4 dull gold bags, 1 dim yellow bag, 4 striped cyan bags, 2 dim gold bags.
dim maroon bags contain 5 shiny purple bags.
shiny purple bags contain 5 pale violet bags, 2 light fuchsia bags, 2 mirrored red bags.
vibrant lime bags contain 4 bright orange bags, 1 posh beige bag.
vibrant teal bags contain 2 posh turquoise bags, 3 pale tomato bags, 3 dark bronze bags.
posh fuchsia bags contain 3 striped plum bags, 2 drab aqua bags.
dotted violet bags contain 5 plaid black bags, 1 clear salmon bag, 2 dull chartreuse bags.
clear gold bags contain 2 dull violet bags, 3 muted white bags.
dull cyan bags contain 4 pale violet bags, 2 light gold bags, 4 dark tomato bags.
posh beige bags contain 5 mirrored cyan bags, 5 dotted red bags, 3 clear purple bags, 3 posh white bags.
dotted maroon bags contain 3 pale orange bags, 1 striped black bag, 4 faded fuchsia bags.
dotted tomato bags contain 5 striped magenta bags, 4 striped orange bags, 3 muted teal bags, 3 bright black bags.
drab teal bags contain 5 striped tan bags, 4 dull green bags, 5 muted coral bags, 1 clear red bag.
vibrant magenta bags contain 5 bright orange bags, 4 mirrored gray bags, 1 faded tan bag, 4 faded brown bags.
posh crimson bags contain 5 light lime bags, 1 faded brown bag, 2 posh red bags.
dull lavender bags contain 4 clear green bags, 5 wavy orange bags, 5 posh green bags, 3 plaid orange bags.
wavy yellow bags contain 2 light teal bags.
dotted bronze bags contain 3 clear red bags, 4 posh plum bags, 4 light lavender bags, 4 faded fuchsia bags.
dim olive bags contain 2 dotted chartreuse bags.
dark gray bags contain 3 shiny olive bags.
posh salmon bags contain 1 pale purple bag, 2 clear tomato bags, 4 shiny gold bags.
shiny coral bags contain 3 dark olive bags, 2 dull fuchsia bags, 1 dull gold bag.
vibrant green bags contain 2 light fuchsia bags, 5 vibrant violet bags, 3 dotted blue bags.
pale lime bags contain 4 vibrant gold bags, 5 dotted yellow bags.
vibrant yellow bags contain 5 clear violet bags, 1 dark maroon bag.
pale beige bags contain 4 faded red bags, 4 striped green bags.
dim bronze bags contain 5 posh chartreuse bags, 5 light white bags.
clear fuchsia bags contain 5 posh yellow bags, 4 faded fuchsia bags.
faded chartreuse bags contain 5 drab purple bags, 1 wavy olive bag, 3 light black bags, 1 dotted brown bag.
mirrored turquoise bags contain 1 faded fuchsia bag, 2 mirrored blue bags.
light maroon bags contain 4 dotted blue bags, 4 muted gold bags, 3 faded lavender bags.
muted crimson bags contain 5 posh bronze bags.
mirrored blue bags contain 1 faded lavender bag, 5 bright chartreuse bags, 4 dotted brown bags.
striped brown bags contain 2 clear cyan bags, 4 vibrant orange bags, 5 shiny tan bags.
muted orange bags contain 3 dotted black bags, 4 clear beige bags, 2 plaid beige bags, 1 mirrored coral bag.
clear beige bags contain 3 wavy tan bags, 5 dark aqua bags.
bright silver bags contain 3 striped purple bags.
muted plum bags contain 5 light purple bags, 1 light lavender bag, 2 drab maroon bags, 1 posh black bag.
vibrant salmon bags contain 1 shiny teal bag.
dotted chartreuse bags contain 4 vibrant gold bags.
shiny lime bags contain 3 dotted crimson bags, 3 striped crimson bags.
wavy brown bags contain 1 pale violet bag, 3 light beige bags, 2 wavy aqua bags, 4 dim teal bags.
clear yellow bags contain 3 dotted tan bags.
bright red bags contain 1 dim tomato bag, 5 clear tan bags, 2 posh red bags, 5 mirrored yellow bags.
drab tomato bags contain 1 drab yellow bag.
dull crimson bags contain 1 dotted brown bag, 2 bright gray bags, 4 dim tan bags.
shiny beige bags contain 2 plaid teal bags.
dotted coral bags contain 4 plaid teal bags, 2 pale turquoise bags, 4 dark lime bags, 2 pale purple bags.
shiny plum bags contain 5 dull coral bags, 1 shiny gold bag.
light coral bags contain 2 pale bronze bags, 1 clear aqua bag.
vibrant cyan bags contain 1 muted fuchsia bag, 4 pale tan bags, 1 shiny green bag, 1 dotted blue bag.
bright purple bags contain 4 faded white bags.
mirrored chartreuse bags contain 2 shiny orange bags.
light brown bags contain 4 striped violet bags, 4 striped purple bags, 3 wavy yellow bags, 2 drab blue bags.
clear brown bags contain 1 clear indigo bag, 2 dark coral bags.
vibrant fuchsia bags contain 4 dull tan bags, 4 vibrant bronze bags, 1 light white bag, 5 vibrant tomato bags.
clear crimson bags contain 5 muted tomato bags.
muted red bags contain 2 dull beige bags, 2 dark turquoise bags, 1 dark fuchsia bag.
dull salmon bags contain 2 bright tan bags, 5 faded white bags, 4 muted beige bags, 1 dull cyan bag.
drab lavender bags contain 1 dark chartreuse bag.
vibrant plum bags contain 1 dark violet bag, 2 mirrored red bags, 3 muted purple bags, 5 dull blue bags.
drab maroon bags contain 3 plaid teal bags, 4 muted beige bags, 4 posh gold bags, 5 mirrored coral bags.
posh magenta bags contain 4 wavy tomato bags, 3 wavy beige bags.
striped olive bags contain 3 shiny plum bags, 4 plaid gold bags.
vibrant crimson bags contain 2 dim chartreuse bags.
drab lime bags contain 1 vibrant aqua bag.
wavy maroon bags contain 2 dark tan bags, 4 faded brown bags, 4 dim silver bags, 1 muted lime bag.
dull tomato bags contain 2 dotted bronze bags, 5 vibrant maroon bags, 4 plaid tan bags.
dim teal bags contain 5 muted beige bags, 2 mirrored indigo bags, 4 vibrant lavender bags.
wavy white bags contain 1 muted white bag, 1 dim chartreuse bag.
bright lime bags contain 3 dull gold bags, 2 dull indigo bags, 4 drab teal bags.
plaid aqua bags contain 4 light lavender bags, 4 posh gold bags, 3 wavy violet bags, 5 muted chartreuse bags.
mirrored purple bags contain 3 dark lavender bags, 3 clear salmon bags, 1 plaid white bag, 1 striped violet bag.
plaid maroon bags contain 4 dotted red bags, 1 mirrored coral bag, 5 muted indigo bags, 1 clear turquoise bag.
dark turquoise bags contain 4 bright crimson bags, 2 dotted bronze bags, 2 pale violet bags, 5 wavy aqua bags.
dull silver bags contain 2 wavy olive bags, 5 shiny violet bags.
muted olive bags contain 5 plaid beige bags, 3 dark brown bags, 1 clear black bag, 4 faded red bags.
drab indigo bags contain 1 pale violet bag.
muted lime bags contain 5 striped violet bags, 2 plaid lavender bags.
drab blue bags contain 1 pale tomato bag.
drab bronze bags contain 3 vibrant blue bags, 1 vibrant bronze bag.
muted gray bags contain 4 dim chartreuse bags.
striped teal bags contain 4 dark coral bags.
light green bags contain 2 plaid teal bags, 5 pale bronze bags, 3 dull teal bags.
plaid salmon bags contain 3 bright chartreuse bags.
dotted blue bags contain 4 drab plum bags, 1 light tan bag.
dark violet bags contain 5 dark coral bags, 5 dotted lavender bags, 5 pale brown bags, 1 vibrant lavender bag.
pale gold bags contain 1 bright silver bag, 2 dark cyan bags, 1 dull tan bag, 1 plaid blue bag.
light turquoise bags contain 3 drab turquoise bags, 1 dull tan bag, 3 muted indigo bags, 5 dotted fuchsia bags.
plaid blue bags contain 3 pale violet bags, 4 dotted brown bags.
bright magenta bags contain 4 shiny brown bags, 4 wavy violet bags, 3 dark aqua bags, 2 bright turquoise bags.
clear maroon bags contain 4 posh plum bags.
posh red bags contain 5 plaid cyan bags, 4 clear orange bags.
posh purple bags contain 5 plaid cyan bags, 1 drab lavender bag, 3 pale purple bags, 4 light coral bags.
dim lime bags contain 2 striped beige bags, 2 dark blue bags.
shiny indigo bags contain 2 vibrant black bags, 2 wavy orange bags.
posh gold bags contain 5 dull beige bags, 1 shiny teal bag.
wavy beige bags contain 2 dark beige bags, 4 muted chartreuse bags, 2 dim lavender bags, 2 mirrored indigo bags.
dim lavender bags contain 2 vibrant aqua bags.
mirrored beige bags contain 2 posh red bags, 3 pale olive bags, 3 dull brown bags.
clear indigo bags contain 1 shiny teal bag, 1 mirrored indigo bag.
dim chartreuse bags contain 5 bright tan bags.
plaid coral bags contain 2 clear green bags.
wavy cyan bags contain 2 drab blue bags, 5 dotted coral bags, 3 mirrored beige bags.
dotted crimson bags contain 1 muted tan bag, 4 dull maroon bags, 2 striped crimson bags.
drab cyan bags contain 1 dull cyan bag, 3 pale cyan bags, 4 faded aqua bags, 4 clear tan bags.
wavy coral bags contain 4 wavy plum bags, 5 plaid beige bags, 5 pale tan bags.
pale maroon bags contain 5 pale tan bags.
shiny blue bags contain 3 light coral bags, 4 bright olive bags.
plaid orange bags contain 2 dim white bags, 3 shiny silver bags, 3 pale violet bags.
dark tan bags contain 2 vibrant olive bags, 3 plaid turquoise bags, 2 dull chartreuse bags, 4 dull teal bags.
posh cyan bags contain 5 posh orange bags, 5 shiny brown bags.
clear red bags contain no other bags.
light fuchsia bags contain 4 dark beige bags, 1 light black bag, 1 striped blue bag.
striped beige bags contain 2 bright silver bags, 2 faded indigo bags, 1 plaid turquoise bag, 3 shiny plum bags.
wavy lavender bags contain 4 posh black bags, 1 dotted teal bag, 4 drab purple bags.
dotted cyan bags contain 5 dull yellow bags, 5 light beige bags, 2 vibrant aqua bags, 5 dark beige bags.
drab crimson bags contain 5 dark magenta bags.
plaid olive bags contain 1 vibrant crimson bag, 5 dim bronze bags, 1 striped black bag, 1 drab brown bag.
dim yellow bags contain 3 plaid gray bags, 5 vibrant salmon bags, 4 vibrant olive bags.
striped indigo bags contain 3 mirrored coral bags, 2 vibrant bronze bags, 3 dull brown bags.
dark green bags contain 3 shiny teal bags, 5 pale chartreuse bags, 5 dull teal bags, 5 striped silver bags.
drab aqua bags contain 5 dark aqua bags, 5 dotted blue bags, 1 pale violet bag, 1 pale bronze bag.
striped orange bags contain 3 striped green bags, 4 muted beige bags, 2 clear aqua bags, 3 dark crimson bags.
striped silver bags contain 1 pale cyan bag, 5 drab gold bags, 3 bright turquoise bags, 4 light gold bags.
bright blue bags contain 4 light black bags, 1 plaid salmon bag.
striped red bags contain 1 vibrant plum bag, 5 dull blue bags, 1 dull olive bag.
posh white bags contain 3 drab bronze bags, 4 bright crimson bags.
drab turquoise bags contain 4 striped crimson bags.
clear lavender bags contain 4 faded magenta bags, 1 mirrored gray bag, 4 wavy yellow bags, 1 dotted cyan bag.
drab chartreuse bags contain 1 shiny gray bag.
clear purple bags contain 1 shiny brown bag, 2 bright gray bags, 5 clear salmon bags.
dull magenta bags contain 1 posh cyan bag, 3 muted indigo bags, 1 dim lavender bag.
posh chartreuse bags contain 4 wavy violet bags.
posh maroon bags contain 4 striped gray bags.
clear blue bags contain 3 faded lime bags, 2 pale purple bags.
dark gold bags contain 2 dull beige bags, 3 plaid blue bags.
muted coral bags contain 4 dark gold bags.
bright aqua bags contain 3 muted crimson bags.
dull orange bags contain 3 posh gold bags.
shiny turquoise bags contain 3 dark brown bags, 5 shiny red bags, 3 muted beige bags.
mirrored brown bags contain 2 light orange bags, 5 drab coral bags, 2 wavy lime bags.
striped chartreuse bags contain 1 dark lavender bag, 4 pale salmon bags, 4 dotted violet bags, 4 clear tomato bags.
shiny salmon bags contain 4 dim magenta bags.
bright fuchsia bags contain 4 muted chartreuse bags, 3 mirrored green bags.
shiny tomato bags contain 5 clear gray bags, 2 drab silver bags, 3 clear green bags.
muted turquoise bags contain 5 shiny orange bags, 1 mirrored tan bag.
vibrant tan bags contain 1 faded magenta bag, 5 drab plum bags.
posh gray bags contain 2 posh magenta bags.
dark lime bags contain 5 clear aqua bags, 3 posh plum bags.
plaid violet bags contain 2 light bronze bags, 1 light green bag, 1 striped gold bag.
vibrant blue bags contain 2 wavy yellow bags, 4 dim magenta bags, 1 drab maroon bag, 4 dotted brown bags.
faded brown bags contain 2 pale blue bags, 4 bright olive bags, 1 bright bronze bag.
striped salmon bags contain 4 light green bags, 4 wavy orange bags, 3 mirrored coral bags.
plaid lime bags contain 1 bright green bag, 2 light indigo bags.
plaid chartreuse bags contain 4 vibrant green bags, 5 dotted coral bags, 2 muted gray bags, 4 bright purple bags.
light salmon bags contain 5 vibrant maroon bags, 3 dark lime bags, 5 drab tan bags, 1 striped cyan bag.
muted fuchsia bags contain 4 light silver bags, 3 light teal bags, 3 muted gold bags.
clear plum bags contain 5 light turquoise bags.
posh orange bags contain 5 wavy tan bags, 4 dark turquoise bags.
dotted tan bags contain 2 plaid teal bags.
shiny teal bags contain no other bags.
posh violet bags contain 2 vibrant tomato bags, 4 bright orange bags, 3 dotted red bags, 5 pale silver bags.
dotted lime bags contain 5 wavy tan bags, 2 dark tomato bags, 5 mirrored gray bags, 2 light aqua bags.
posh plum bags contain no other bags.
mirrored white bags contain 4 clear gold bags, 1 dark teal bag.
pale indigo bags contain 4 shiny magenta bags, 1 shiny maroon bag.
drab beige bags contain 1 muted plum bag, 5 posh turquoise bags, 2 vibrant fuchsia bags.
faded black bags contain 5 wavy black bags.
plaid beige bags contain 2 posh purple bags, 4 pale olive bags, 3 striped green bags, 5 bright orange bags.
faded white bags contain 4 clear red bags, 4 faded fuchsia bags, 1 dull beige bag.
shiny violet bags contain 3 shiny green bags, 5 wavy brown bags.
wavy blue bags contain 2 light teal bags, 4 dull silver bags, 2 bright black bags, 4 dull tan bags.
wavy red bags contain 4 dark silver bags, 5 dotted chartreuse bags, 2 clear salmon bags, 2 striped tan bags.
shiny lavender bags contain 2 muted bronze bags.
faded coral bags contain 5 dotted chartreuse bags, 2 vibrant silver bags, 2 wavy black bags.
clear coral bags contain 4 muted fuchsia bags.
mirrored coral bags contain 1 vibrant lavender bag.
dim black bags contain 2 bright olive bags, 1 dull teal bag, 4 shiny purple bags.
pale blue bags contain 1 light black bag, 2 light white bags, 1 dull maroon bag, 5 plaid teal bags.
plaid plum bags contain 3 muted coral bags, 1 dim brown bag, 2 plaid aqua bags, 1 vibrant blue bag.
muted black bags contain 5 light blue bags, 3 clear salmon bags.
dotted white bags contain 3 shiny salmon bags, 1 faded maroon bag.
drab coral bags contain 3 striped gold bags, 4 shiny aqua bags, 5 wavy red bags.
dotted salmon bags contain 4 drab black bags, 2 light aqua bags.
mirrored indigo bags contain 3 wavy orange bags, 5 posh plum bags.
vibrant violet bags contain 1 striped lavender bag, 1 muted purple bag, 2 drab silver bags, 5 pale olive bags.
plaid teal bags contain 4 shiny teal bags, 2 wavy turquoise bags, 2 vibrant aqua bags.
dull violet bags contain 5 light coral bags, 1 vibrant tan bag.
faded crimson bags contain 3 dark chartreuse bags, 2 vibrant cyan bags, 3 mirrored cyan bags.
posh bronze bags contain 4 plaid lavender bags, 3 shiny gold bags, 5 mirrored coral bags, 2 shiny indigo bags.
clear olive bags contain 2 muted gray bags, 2 dark red bags, 5 clear brown bags, 5 bright silver bags.

612
2020/input/2020/day8.txt Normal file
View File

@ -0,0 +1,612 @@
acc +18
nop +222
acc -16
acc +28
jmp +475
acc -6
jmp +584
acc -12
acc -8
jmp +554
acc -9
acc +12
acc -16
acc +27
jmp +336
acc -4
jmp +214
acc +38
jmp +61
acc +3
acc +28
acc +5
acc -19
jmp +584
nop +206
jmp +506
acc +36
jmp +133
acc +20
acc +43
acc -18
jmp +409
acc +24
jmp +131
acc -12
acc +7
acc +7
jmp +454
acc +37
acc -6
nop +558
acc +31
jmp +124
acc -15
nop +201
acc -7
jmp +297
acc +3
nop +517
jmp +221
jmp +211
acc +28
acc +35
jmp +5
acc +31
nop +325
acc -15
jmp +116
jmp +1
nop +333
acc -2
acc -5
jmp +138
acc +19
acc +9
jmp +180
acc +18
jmp +228
jmp +495
jmp +382
acc +20
nop +414
nop +139
acc +33
jmp +171
acc -10
jmp +41
acc -2
jmp +80
acc +20
nop +451
acc +2
acc +24
jmp +102
acc +1
acc -11
acc +9
acc +38
jmp -73
acc +17
acc +16
acc +12
acc +43
jmp +168
jmp +286
acc +6
acc +6
jmp +271
acc -17
acc -5
acc +1
jmp -50
acc -9
acc +6
acc -2
acc +33
jmp +385
acc +18
acc +24
jmp +370
acc -5
acc +23
acc +6
jmp +98
acc -10
acc -16
jmp +329
nop +41
jmp +463
nop +224
acc +35
jmp +345
acc +34
acc -18
acc +5
jmp +177
nop -57
nop -80
acc +20
jmp -12
acc +24
acc +39
jmp +363
jmp +253
acc -14
acc +0
acc +22
jmp +118
acc +43
acc -2
jmp +300
acc -14
acc +8
acc +47
jmp +271
jmp +420
acc +33
acc +15
acc +20
acc +25
jmp +84
acc +41
jmp +420
acc +25
jmp +238
jmp +1
acc +14
jmp +415
jmp +68
jmp +262
acc +34
jmp +346
acc +39
jmp +56
jmp +364
jmp -133
acc +13
jmp +1
acc +33
jmp +408
acc +29
acc -4
jmp +319
jmp +106
jmp +228
acc -8
acc +8
acc +22
jmp -146
jmp +223
acc +27
nop +191
acc +49
jmp +331
jmp +39
jmp -170
acc +28
acc -6
acc +50
jmp +268
acc +41
nop +254
acc +28
jmp +269
jmp +140
acc +10
nop +131
acc +3
jmp -40
jmp +373
acc +47
jmp -91
acc -19
jmp +300
acc -2
jmp +1
acc +44
acc -11
jmp +306
acc +33
jmp -15
acc +9
jmp +1
jmp +144
acc +40
nop +184
nop -75
nop +228
jmp +296
acc +22
nop +364
jmp -214
jmp +18
jmp +375
acc +22
jmp -67
acc +8
acc -17
jmp +174
jmp -99
nop -45
acc +7
jmp -213
jmp -218
acc +50
nop +52
nop +98
jmp -142
acc +18
jmp +252
acc +36
jmp -194
acc +1
nop -53
jmp -127
jmp +327
acc +7
acc -9
acc +39
nop -127
jmp +84
jmp -117
nop -29
acc +43
jmp -216
acc +25
acc +16
acc +40
nop +122
jmp +140
jmp +180
acc +42
acc -5
acc -14
jmp -84
jmp -31
acc +37
acc -11
jmp -217
jmp +210
jmp +170
nop +301
jmp +309
acc +6
jmp +135
acc +6
nop -123
acc +17
jmp +315
acc -1
nop -46
nop -58
nop -59
jmp +202
acc +48
acc +38
jmp +86
acc -4
acc +33
acc +28
jmp -50
nop +43
acc +38
acc +13
jmp +33
acc +4
acc +6
jmp -78
acc +22
acc +7
acc -9
jmp -56
acc +30
nop +54
nop -81
nop +198
jmp +252
jmp +1
acc +6
acc -10
acc +29
jmp -242
jmp +1
acc +42
acc +34
acc +22
jmp +231
acc +29
acc -10
jmp -161
acc +37
acc +9
jmp -77
acc -15
acc +32
acc +32
jmp -6
acc +0
nop -124
nop +174
jmp +20
acc +45
acc +24
jmp -13
acc +6
acc -10
acc +23
acc -15
jmp +34
acc +5
acc +38
acc +42
jmp -116
acc +0
acc +8
jmp -243
acc -18
acc +25
acc +1
jmp +158
nop +65
jmp +1
jmp +151
acc +12
acc +12
jmp +1
jmp -305
jmp +29
jmp -263
acc +33
jmp +1
nop +142
jmp +78
acc +41
nop -141
acc -9
acc +5
jmp -245
jmp +41
acc +16
nop -83
jmp -28
nop -149
acc +38
jmp -15
acc +7
nop -329
acc +5
acc +21
jmp -7
acc -19
jmp -38
acc +5
acc +3
acc +10
jmp -181
jmp -240
acc +19
acc +15
acc +31
acc -11
jmp -340
acc +12
acc +46
jmp +127
acc +12
acc +31
acc +30
jmp -158
acc -10
jmp -374
jmp +50
acc +43
nop +42
acc +19
jmp -232
acc -14
acc -4
jmp +95
acc +23
acc +49
acc +31
nop -139
jmp -272
jmp -141
acc +26
acc -8
jmp +173
nop +145
nop +133
jmp +164
acc +7
jmp +23
acc -4
acc +48
jmp -138
acc +4
jmp -389
nop +156
acc +44
acc +40
jmp +146
nop -247
acc +44
jmp +1
acc +28
jmp +95
acc +13
acc +2
jmp -254
acc +24
jmp +122
acc +39
acc +0
jmp -12
jmp -179
nop -44
nop +100
acc -19
nop -47
jmp -107
acc +32
acc +33
acc +42
acc +6
jmp -366
jmp -122
acc +2
nop -443
nop +72
jmp -381
jmp -446
jmp -332
acc -7
acc +45
jmp -355
acc +27
acc -4
acc +3
jmp +96
acc +45
jmp -402
acc +45
acc -3
acc +22
jmp -141
acc +29
acc -1
jmp +29
acc -1
acc -10
jmp -208
acc +6
nop -196
jmp -218
acc -12
acc +49
nop -137
jmp -430
acc +21
jmp -110
nop -287
acc -3
jmp -42
jmp -487
acc -16
acc -1
acc +7
acc +39
jmp -119
jmp +1
acc +9
jmp -23
acc +27
jmp -300
acc +12
jmp -440
acc +2
acc +38
acc +12
jmp -84
acc +25
acc -14
jmp -418
acc -15
acc +48
jmp +1
nop -383
jmp -365
acc +47
jmp -193
acc +23
jmp -235
jmp +1
acc -4
acc +35
nop -64
jmp -87
acc +32
jmp -339
jmp -479
acc -4
acc +32
acc -10
jmp -77
acc +0
acc +47
acc +41
jmp -308
acc -8
acc -9
jmp -229
acc -14
acc +24
nop -380
acc +49
jmp -174
acc -11
nop -69
jmp +3
acc -14
jmp -89
jmp -301
acc +46
acc +8
nop -156
acc +44
jmp +1
jmp +26
acc +17
acc +23
acc +6
jmp -4
jmp -97
jmp -324
acc +2
jmp -27
nop -195
acc +3
acc -13
acc +15
jmp -19
acc +30
nop -318
jmp +19
nop -72
jmp -315
acc +4
nop +6
jmp -384
jmp -505
jmp -512
acc +33
jmp -168
jmp -443
nop -519
acc +7
acc +41
acc +15
jmp -269
nop -539
jmp -416
jmp -326
nop -221
acc +14
jmp -186
acc -1
jmp -295
acc +29
acc +43
nop -436
nop -421
jmp -123
acc +13
acc -11
acc +12
jmp -155
acc +9
acc -16
acc -15
nop -380
jmp +1

1000
2020/input/2020/day9.txt Normal file

File diff suppressed because it is too large Load Diff

10
2020/scripts/update-readme.sh Executable file
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@ -0,0 +1,10 @@
#!/usr/bin/env bash
MAX_DAY=$(ls src/day* | tr -d 'a-z/. ' | sort -n | tail -1)
(
echo "# Results"
echo
echo "\`\`\`"
cargo run --release
echo "\`\`\`"
echo
) > README.md

238
2020/src/day10.rs Normal file
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//! --- Day 10: Adapter Array ---
//! Patched into the aircraft's data port, you discover weather forecasts of a massive tropical storm. Before you can figure out whether it will impact your vacation plans, however, your device suddenly turns off!
//!
//! Its battery is dead.
//!
//! You'll need to plug it in. There's only one problem: the charging outlet near your seat produces the wrong number of jolts. Always prepared, you make a list of all of the joltage adapters in your bag.
//!
//! Each of your joltage adapters is rated for a specific output joltage (your puzzle input). Any given adapter can take an input 1, 2, or 3 jolts lower than its rating and still produce its rated output joltage.
//!
//! In addition, your device has a built-in joltage adapter rated for 3 jolts higher than the highest-rated adapter in your bag. (If your adapter list were 3, 9, and 6, your device's built-in adapter would be rated for 12 jolts.)
//!
//! Treat the charging outlet near your seat as having an effective joltage rating of 0.
//!
//! Since you have some time to kill, you might as well test all of your adapters. Wouldn't want to get to your resort and realize you can't even charge your device!
//!
//! If you use every adapter in your bag at once, what is the distribution of joltage differences between the charging outlet, the adapters, and your device?
//!
//! For example, suppose that in your bag, you have adapters with the following joltage ratings:
//!
//! 16
//! 10
//! 15
//! 5
//! 1
//! 11
//! 7
//! 19
//! 6
//! 12
//! 4
//! With these adapters, your device's built-in joltage adapter would be rated for 19 + 3 = 22 jolts, 3 higher than the highest-rated adapter.
//!
//! Because adapters can only connect to a source 1-3 jolts lower than its rating, in order to use every adapter, you'd need to choose them like this:
//!
//! The charging outlet has an effective rating of 0 jolts, so the only adapters that could connect to it directly would need to have a joltage rating of 1, 2, or 3 jolts. Of these, only one you have is an adapter rated 1 jolt (difference of 1).
//! From your 1-jolt rated adapter, the only choice is your 4-jolt rated adapter (difference of 3).
//! From the 4-jolt rated adapter, the adapters rated 5, 6, or 7 are valid choices. However, in order to not skip any adapters, you have to pick the adapter rated 5 jolts (difference of 1).
//! Similarly, the next choices would need to be the adapter rated 6 and then the adapter rated 7 (with difference of 1 and 1).
//! The only adapter that works with the 7-jolt rated adapter is the one rated 10 jolts (difference of 3).
//! From 10, the choices are 11 or 12; choose 11 (difference of 1) and then 12 (difference of 1).
//! After 12, only valid adapter has a rating of 15 (difference of 3), then 16 (difference of 1), then 19 (difference of 3).
//! Finally, your device's built-in adapter is always 3 higher than the highest adapter, so its rating is 22 jolts (always a difference of 3).
//! In this example, when using every adapter, there are 7 differences of 1 jolt and 5 differences of 3 jolts.
//!
//! Here is a larger example:
//!
//! 28
//! 33
//! 18
//! 42
//! 31
//! 14
//! 46
//! 20
//! 48
//! 47
//! 24
//! 23
//! 49
//! 45
//! 19
//! 38
//! 39
//! 11
//! 1
//! 32
//! 25
//! 35
//! 8
//! 17
//! 7
//! 9
//! 4
//! 2
//! 34
//! 10
//! 3
//! In this larger example, in a chain that uses all of the adapters, there are 22 differences of 1 jolt and 10 differences of 3 jolts.
//!
//! Find a chain that uses all of your adapters to connect the charging outlet to your device's built-in adapter and count the joltage differences between the charging outlet, the adapters, and your device. What is the number of 1-jolt differences multiplied by the number of 3-jolt differences?
//!
//! --- Part Two ---
//! To completely determine whether you have enough adapters, you'll need to figure out how many different ways they can be arranged. Every arrangement needs to connect the charging outlet to your device. The previous rules about when adapters can successfully connect still apply.
//!
//! The first example above (the one that starts with 16, 10, 15) supports the following arrangements:
//!
//! (0), 1, 4, 5, 6, 7, 10, 11, 12, 15, 16, 19, (22)
//! (0), 1, 4, 5, 6, 7, 10, 12, 15, 16, 19, (22)
//! (0), 1, 4, 5, 7, 10, 11, 12, 15, 16, 19, (22)
//! (0), 1, 4, 5, 7, 10, 12, 15, 16, 19, (22)
//! (0), 1, 4, 6, 7, 10, 11, 12, 15, 16, 19, (22)
//! (0), 1, 4, 6, 7, 10, 12, 15, 16, 19, (22)
//! (0), 1, 4, 7, 10, 11, 12, 15, 16, 19, (22)
//! (0), 1, 4, 7, 10, 12, 15, 16, 19, (22)
//! (The charging outlet and your device's built-in adapter are shown in parentheses.) Given the adapters from the first example, the total number of arrangements that connect the charging outlet to your device is 8.
//!
//! The second example above (the one that starts with 28, 33, 18) has many arrangements. Here are a few:
//!
//! (0), 1, 2, 3, 4, 7, 8, 9, 10, 11, 14, 17, 18, 19, 20, 23, 24, 25, 28, 31,
//! 32, 33, 34, 35, 38, 39, 42, 45, 46, 47, 48, 49, (52)
//!
//! (0), 1, 2, 3, 4, 7, 8, 9, 10, 11, 14, 17, 18, 19, 20, 23, 24, 25, 28, 31,
//! 32, 33, 34, 35, 38, 39, 42, 45, 46, 47, 49, (52)
//!
//! (0), 1, 2, 3, 4, 7, 8, 9, 10, 11, 14, 17, 18, 19, 20, 23, 24, 25, 28, 31,
//! 32, 33, 34, 35, 38, 39, 42, 45, 46, 48, 49, (52)
//!
//! (0), 1, 2, 3, 4, 7, 8, 9, 10, 11, 14, 17, 18, 19, 20, 23, 24, 25, 28, 31,
//! 32, 33, 34, 35, 38, 39, 42, 45, 46, 49, (52)
//!
//! (0), 1, 2, 3, 4, 7, 8, 9, 10, 11, 14, 17, 18, 19, 20, 23, 24, 25, 28, 31,
//! 32, 33, 34, 35, 38, 39, 42, 45, 47, 48, 49, (52)
//!
//! (0), 3, 4, 7, 10, 11, 14, 17, 20, 23, 25, 28, 31, 34, 35, 38, 39, 42, 45,
//! 46, 48, 49, (52)
//!
//! (0), 3, 4, 7, 10, 11, 14, 17, 20, 23, 25, 28, 31, 34, 35, 38, 39, 42, 45,
//! 46, 49, (52)
//!
//! (0), 3, 4, 7, 10, 11, 14, 17, 20, 23, 25, 28, 31, 34, 35, 38, 39, 42, 45,
//! 47, 48, 49, (52)
//!
//! (0), 3, 4, 7, 10, 11, 14, 17, 20, 23, 25, 28, 31, 34, 35, 38, 39, 42, 45,
//! 47, 49, (52)
//!
//! (0), 3, 4, 7, 10, 11, 14, 17, 20, 23, 25, 28, 31, 34, 35, 38, 39, 42, 45,
//! 48, 49, (52)
//! In total, this set of adapters can connect the charging outlet to your device in 19208 distinct arrangements.
//!
//! You glance back down at your bag and try to remember why you brought so many adapters; there must be more than a trillion valid ways to arrange them! Surely, there must be an efficient way to count the arrangements.
//!
//! What is the total number of distinct ways you can arrange the adapters to connect the charging outlet to your device?
use aoc_runner_derive::{aoc, aoc_generator};
#[aoc_generator(day10)]
fn parse(input: &str) -> Vec<usize> {
let mut jolts: Vec<_> = input.split('\n').map(|s| s.parse().unwrap()).collect();
// Add outlet
jolts.push(0);
// Add device power adapter
jolts.push(jolts.iter().max().unwrap() + 3);
jolts.sort();
jolts
}
#[aoc(day10, part1)]
fn solution1(jolts: &[usize]) -> usize {
let (one, three) = jolts.windows(2).fold((0, 0), |(one, three), pair| {
let first = pair[0];
let second = pair[1];
match second - first {
1 => (one + 1, three),
3 => (one, three + 1),
d => panic!(format!("unexpected diff: {} - {} = {}", second, first, d)),
}
});
one * three
}
#[aoc(day10, part2)]
fn solution2(jolts: &[usize]) -> usize {
// count_permutations(jolts)
// Store permutations at each node.
let mut paths = vec![1; jolts.len()];
jolts.iter().enumerate().skip(1).for_each(|(cur, jolt)| {
let p = (cur.saturating_sub(3)..cur)
.filter(|idx| (jolt - jolts[*idx]) <= 3)
.map(|idx| paths[idx])
.sum();
paths[cur] = p;
});
paths[paths.len() - 1]
}
#[cfg(test)]
mod tests {
use super::*;
// 1 4 5 6 7 10 11 12 15 16 19
const INPUT1: &'static str = r#"16
10
15
5
1
11
7
19
6
12
4"#;
// 1 2 3 4 7 8 9 10 11 14 17 18 19 20 23 24 25 31 32 33 34 35 38 39 42 45 46 47 48 49
const INPUT2: &'static str = r#"28
33
18
42
31
14
46
20
48
47
24
23
49
45
19
38
39
11
1
32
25
35
8
17
7
9
4
2
34
10
3"#;
#[test]
fn part1() {
assert_eq!(solution1(&parse(&INPUT1)), 7 * 5);
assert_eq!(solution1(&parse(&INPUT2)), 22 * 10);
}
#[test]
fn part2() {
assert_eq!(solution2(&parse(&INPUT1)), 8);
assert_eq!(solution2(&parse(&INPUT2)), 19208);
}
}

721
2020/src/day11.rs Normal file
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@ -0,0 +1,721 @@
//! --- Day 11: Seating System ---
//! Your plane lands with plenty of time to spare. The final leg of your journey is a ferry that goes directly to the tropical island where you can finally start your vacation. As you reach the waiting area to board the ferry, you realize you're so early, nobody else has even arrived yet!
//!
//! By modeling the process people use to choose (or abandon) their seat in the waiting area, you're pretty sure you can predict the best place to sit. You make a quick map of the seat layout (your puzzle input).
//!
//! The seat layout fits neatly on a grid. Each position is either floor (.), an empty seat (L), or an occupied seat (#). For example, the initial seat layout might look like this:
//!
//! L.LL.LL.LL
//! LLLLLLL.LL
//! L.L.L..L..
//! LLLL.LL.LL
//! L.LL.LL.LL
//! L.LLLLL.LL
//! ..L.L.....
//! LLLLLLLLLL
//! L.LLLLLL.L
//! L.LLLLL.LL
//! Now, you just need to model the people who will be arriving shortly. Fortunately, people are entirely predictable and always follow a simple set of rules. All decisions are based on the number of occupied seats adjacent to a given seat (one of the eight positions immediately up, down, left, right, or diagonal from the seat). The following rules are applied to every seat simultaneously:
//!
//! If a seat is empty (L) and there are no occupied seats adjacent to it, the seat becomes occupied.
//! If a seat is occupied (#) and four or more seats adjacent to it are also occupied, the seat becomes empty.
//! Otherwise, the seat's state does not change.
//! Floor (.) never changes; seats don't move, and nobody sits on the floor.
//!
//! After one round of these rules, every seat in the example layout becomes occupied:
//!
//! #.##.##.##
//! #######.##
//! #.#.#..#..
//! ####.##.##
//! #.##.##.##
//! #.#####.##
//! ..#.#.....
//! ##########
//! #.######.#
//! #.#####.##
//! After a second round, the seats with four or more occupied adjacent seats become empty again:
//!
//! #.LL.L#.##
//! #LLLLLL.L#
//! L.L.L..L..
//! #LLL.LL.L#
//! #.LL.LL.LL
//! #.LLLL#.##
//! ..L.L.....
//! #LLLLLLLL#
//! #.LLLLLL.L
//! #.#LLLL.##
//! This process continues for three more rounds:
//!
//! #.##.L#.##
//! #L###LL.L#
//! L.#.#..#..
//! #L##.##.L#
//! #.##.LL.LL
//! #.###L#.##
//! ..#.#.....
//! #L######L#
//! #.LL###L.L
//! #.#L###.##
//!
//! #.#L.L#.##
//! #LLL#LL.L#
//! L.L.L..#..
//! #LLL.##.L#
//! #.LL.LL.LL
//! #.LL#L#.##
//! ..L.L.....
//! #L#LLLL#L#
//! #.LLLLLL.L
//! #.#L#L#.##
//!
//! #.#L.L#.##
//! #LLL#LL.L#
//! L.#.L..#..
//! #L##.##.L#
//! #.#L.LL.LL
//! #.#L#L#.##
//! ..L.L.....
//! #L#L##L#L#
//! #.LLLLLL.L
//! #.#L#L#.##
//!
//! At this point, something interesting happens: the chaos stabilizes and further applications of these rules cause no seats to change state! Once people stop moving around, you count 37 occupied seats.
//!
//! Simulate your seating area by applying the seating rules repeatedly until no seats change state. How many seats end up occupied?
//!
//! --- Part Two ---
//! As soon as people start to arrive, you realize your mistake. People don't just care about adjacent seats - they care about the first seat they can see in each of those eight directions!
//!
//! Now, instead of considering just the eight immediately adjacent seats, consider the first seat in each of those eight directions. For example, the empty seat below would see eight occupied seats:
//!
//! .......#.
//! ...#.....
//! .#.......
//! .........
//! ..#L....#
//! ....#....
//! .........
//! #........
//! ...#.....
//! The leftmost empty seat below would only see one empty seat, but cannot see any of the occupied ones:
//!
//! .............
//! .L.L.#.#.#.#.
//! .............
//! The empty seat below would see no occupied seats:
//!
//! .##.##.
//! #.#.#.#
//! ##...##
//! ...L...
//! ##...##
//! #.#.#.#
//! .##.##.
//! Also, people seem to be more tolerant than you expected: it now takes five or more visible occupied seats for an occupied seat to become empty (rather than four or more from the previous rules). The other rules still apply: empty seats that see no occupied seats become occupied, seats matching no rule don't change, and floor never changes.
//!
//! Given the same starting layout as above, these new rules cause the seating area to shift around as follows:
//!
//! L.LL.LL.LL
//! LLLLLLL.LL
//! L.L.L..L..
//! LLLL.LL.LL
//! L.LL.LL.LL
//! L.LLLLL.LL
//! ..L.L.....
//! LLLLLLLLLL
//! L.LLLLLL.L
//! L.LLLLL.LL
//! #.##.##.##
//! #######.##
//! #.#.#..#..
//! ####.##.##
//! #.##.##.##
//! #.#####.##
//! ..#.#.....
//! ##########
//! #.######.#
//! #.#####.##
//! #.LL.LL.L#
//! #LLLLLL.LL
//! L.L.L..L..
//! LLLL.LL.LL
//! L.LL.LL.LL
//! L.LLLLL.LL
//! ..L.L.....
//! LLLLLLLLL#
//! #.LLLLLL.L
//! #.LLLLL.L#
//! #.L#.##.L#
//! #L#####.LL
//! L.#.#..#..
//! ##L#.##.##
//! #.##.#L.##
//! #.#####.#L
//! ..#.#.....
//! LLL####LL#
//! #.L#####.L
//! #.L####.L#
//! #.L#.L#.L#
//! #LLLLLL.LL
//! L.L.L..#..
//! ##LL.LL.L#
//! L.LL.LL.L#
//! #.LLLLL.LL
//! ..L.L.....
//! LLLLLLLLL#
//! #.LLLLL#.L
//! #.L#LL#.L#
//! #.L#.L#.L#
//! #LLLLLL.LL
//! L.L.L..#..
//! ##L#.#L.L#
//! L.L#.#L.L#
//! #.L####.LL
//! ..#.#.....
//! LLL###LLL#
//! #.LLLLL#.L
//! #.L#LL#.L#
//! #.L#.L#.L#
//! #LLLLLL.LL
//! L.L.L..#..
//! ##L#.#L.L#
//! L.L#.LL.L#
//! #.LLLL#.LL
//! ..#.L.....
//! LLL###LLL#
//! #.LLLLL#.L
//! #.L#LL#.L#
//! Again, at this point, people stop shifting around and the seating area reaches equilibrium. Once this occurs, you count 26 occupied seats.
//!
//! Given the new visibility method and the rule change for occupied seats becoming empty, once equilibrium is reached, how many seats end up occupied?
use std::convert::TryFrom;
use std::str::FromStr;
use aoc_runner_derive::{aoc, aoc_generator};
#[derive(Clone, Copy, PartialEq)]
enum State {
/// '.'
Floor,
/// 'L'
Empty,
/// '#'
Occupied,
}
use std::fmt;
impl fmt::Debug for State {
fn fmt(&self, f: &mut fmt::Formatter<'_>) -> fmt::Result {
write!(f, "{}", self)
}
}
impl fmt::Display for State {
fn fmt(&self, f: &mut fmt::Formatter<'_>) -> fmt::Result {
match self {
State::Floor => write!(f, "."),
State::Empty => write!(f, "L"),
State::Occupied => write!(f, "#"),
}
}
}
impl FromStr for State {
type Err = String;
fn from_str(s: &str) -> Result<State, String> {
match s {
"." => Ok(State::Floor),
"L" => Ok(State::Empty),
"#" => Ok(State::Occupied),
s => Err(format!("Unknown map character: '{}'", s)),
}
}
}
impl TryFrom<char> for State {
type Error = String;
fn try_from(c: char) -> Result<State, String> {
match c {
'.' => Ok(State::Floor),
'#' => Ok(State::Occupied),
'L' => Ok(State::Empty),
c => Err(format!("Unknown map character: '{}'", c)),
}
}
}
#[derive(PartialEq)]
struct Map {
cells: Vec<State>,
width: usize,
height: usize,
}
impl fmt::Debug for Map {
fn fmt(&self, f: &mut fmt::Formatter<'_>) -> fmt::Result {
write!(f, "{}", self)
}
}
impl fmt::Display for Map {
fn fmt(&self, f: &mut fmt::Formatter<'_>) -> fmt::Result {
write!(f, "\n")?;
for row in self.cells.chunks(self.width) {
for c in row {
write!(f, "{}", c)?;
}
write!(f, "\n")?;
}
Ok(())
}
}
impl FromStr for Map {
type Err = String;
fn from_str(s: &str) -> Result<Map, String> {
let mut cells = Vec::new();
let rows: Vec<_> = s.split("\n").collect();
for row in &rows {
let c: Result<Vec<_>, _> = row.chars().map(|cell| State::try_from(cell)).collect();
cells.extend(c?);
}
let height = rows.len();
let width = cells.len() / height;
Ok(Map {
cells,
height,
width,
})
}
}
use std::ops::{Index, IndexMut};
impl Index<(usize, usize)> for Map {
type Output = State;
fn index(&self, (x, y): (usize, usize)) -> &Self::Output {
&self.cells[x + y * self.width]
}
}
impl IndexMut<(usize, usize)> for Map {
fn index_mut(&mut self, (x, y): (usize, usize)) -> &mut Self::Output {
&mut self.cells[x + y * self.width]
}
}
impl Map {
fn new(width: usize, height: usize) -> Map {
Map {
width,
height,
cells: vec![State::Empty; width * height],
}
}
fn adjacent_count(&self, x: usize, y: usize) -> usize {
use std::cmp::min;
let x_min = x.saturating_sub(1);
let y_min = y.saturating_sub(1);
let x_max = min(x + 1, self.width - 1);
let y_max = min(y + 1, self.height - 1);
let mut cnt = 0;
for y_off in y_min..=y_max {
for x_off in x_min..=x_max {
// Skip the current cell
if x == x_off && y == y_off {
continue;
}
if self[(x_off, y_off)] == State::Occupied {
cnt += 1
}
}
}
cnt
}
/// Counts number of occupied seats in 8 cardinal directions. Stops if it hits an empty seat.
fn line_of_sight_count(&self, x: usize, y: usize) -> usize {
let incs = vec![
// Right
(1, 0),
// Left
(-1, 0),
// Up
(0, -1),
// Down
(0, 1),
// Up-right
(1, -1),
// Up-left
(-1, -1),
// Down-right
(1, 1),
// Down-left
(-1, 1),
];
incs.into_iter()
.map(|inc| self.shoot(x, y, inc))
.filter(|&v| v)
.count()
}
/// Iterates over the map using the offsets until it hits an occupied seat or edge.
/// If an occupied seat is found before an unoccupied seat or edge, true is returned.
/// If an unoccupied seat is found before an occupied seat or edge, false is returned.
/// If an edge is hit, false is returned.
/// Floors are ignored.
fn shoot(&self, x: usize, y: usize, (x_off, y_off): (isize, isize)) -> bool {
let mut x = x as isize;
let mut y = y as isize;
let width = self.width as isize;
let height = self.height as isize;
loop {
x = x + x_off;
y = y + y_off;
// Hit an edge.
if x < 0 || y < 0 || x >= width || y >= height {
return false;
}
let s = self[(x as usize, y as usize)];
if let State::Empty = s {
return false;
}
if let State::Occupied = s {
return true;
}
}
}
fn occupied_count(&self) -> usize {
self.cells.iter().filter(|&c| c == &State::Occupied).count()
}
}
fn step_solution1(map: &Map) -> Map {
let mut new_m = Map::new(map.width, map.height);
for y in 0..map.height {
for x in 0..map.width {
// Floor's never change
if map[(x, y)] == State::Floor {
new_m[(x, y)] = State::Floor;
continue;
}
let new_cell = match map.adjacent_count(x, y) {
0 => State::Occupied,
c if c >= 4 => State::Empty,
_ => map[(x, y)],
};
new_m[(x, y)] = new_cell;
}
}
new_m
}
fn step_solution2(map: &Map) -> Map {
let mut new_m = Map::new(map.width, map.height);
for y in 0..map.height {
for x in 0..map.width {
// Floor's never change
if map[(x, y)] == State::Floor {
new_m[(x, y)] = State::Floor;
continue;
}
let new_cell = match map.line_of_sight_count(x, y) {
0 => State::Occupied,
c if c >= 5 => State::Empty,
_ => map[(x, y)],
};
new_m[(x, y)] = new_cell;
}
}
new_m
}
#[aoc_generator(day11)]
fn parse(input: &str) -> Map {
input.parse().expect("Failed to parse map")
}
#[aoc(day11, part1)]
fn solution1(map: &Map) -> usize {
let mut prev = step_solution1(map);
let mut cur = step_solution1(&prev);
while prev != cur {
// Show map animating.
// println!("{}", cur);
prev = cur;
cur = step_solution1(&prev);
}
cur.occupied_count()
}
#[aoc(day11, part2)]
fn solution2(map: &Map) -> usize {
let mut prev = step_solution2(map);
let mut cur = step_solution2(&prev);
while prev != cur {
// Show map animating.
// println!("{}", cur);
prev = cur;
cur = step_solution2(&prev);
}
cur.occupied_count()
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn index() {
let m: Map = "#.L\n.#L\n.L#".parse().expect("Failed to parse map");
assert_eq!(m[(1, 0)], State::Floor);
assert_eq!(m[(0, 1)], State::Floor);
assert_eq!(m[(0, 2)], State::Floor);
assert_eq!(m[(2, 0)], State::Empty);
assert_eq!(m[(2, 1)], State::Empty);
assert_eq!(m[(1, 2)], State::Empty);
assert_eq!(m[(0, 0)], State::Occupied);
assert_eq!(m[(1, 1)], State::Occupied);
assert_eq!(m[(2, 2)], State::Occupied);
}
#[test]
fn solution1() {
let input = r#"L.LL.LL.LL
LLLLLLL.LL
L.L.L..L..
LLLL.LL.LL
L.LL.LL.LL
L.LLLLL.LL
..L.L.....
LLLLLLLLLL
L.LLLLLL.L
L.LLLLL.LL"#
.replace(' ', "");
let steps: Vec<_> = vec![
r#"#.##.##.##
#######.##
#.#.#..#..
####.##.##
#.##.##.##
#.#####.##
..#.#.....
##########
#.######.#
#.#####.##"#,
r#"#.LL.L#.##
#LLLLLL.L#
L.L.L..L..
#LLL.LL.L#
#.LL.LL.LL
#.LLLL#.##
..L.L.....
#LLLLLLLL#
#.LLLLLL.L
#.#LLLL.##"#,
r#"#.##.L#.##
#L###LL.L#
L.#.#..#..
#L##.##.L#
#.##.LL.LL
#.###L#.##
..#.#.....
#L######L#
#.LL###L.L
#.#L###.##"#,
r#"#.#L.L#.##
#LLL#LL.L#
L.L.L..#..
#LLL.##.L#
#.LL.LL.LL
#.LL#L#.##
..L.L.....
#L#LLLL#L#
#.LLLLLL.L
#.#L#L#.##"#,
r#"#.#L.L#.##
#LLL#LL.L#
L.#.L..#..
#L##.##.L#
#.#L.LL.LL
#.#L#L#.##
..L.L.....
#L#L##L#L#
#.LLLLLL.L
#.#L#L#.##"#,
]
.iter()
// Trim whitespace that rustfmt keeps introducing.
.map(|m| m.replace(' ', ""))
.collect();
let mut m = input.parse().expect("Failed to parse map");
for (i, want_input) in steps.iter().enumerate() {
let want: Map = want_input
.parse()
.expect(&format!("Failed to parse step {}", i));
let got = step_solution1(&m);
assert_eq!(want, got, "step {}\nm {}", i, m);
m = got;
}
}
#[test]
fn line_of_sight_count() {
let test_input = vec![
(
8,
(3, 4),
r#".......#.
...#.....
.#.......
.........
..#L....#
....#....
.........
#........
...#....."#
.replace(' ', ""),
),
(
4,
(3, 0),
r#"#.L#.##.L#
#L#####.LL
L.#.#..#..
##L#.##.##
#.##.#L.##
#.#####.#L
..#.#.....
LLL####LL#
#.L#####.L
#.L####.L#"#
.replace(' ', ""),
),
(
0,
(1, 1),
r#".............
.L.L.#.#.#.#.
............."#
.replace(' ', ""),
),
(
0,
(3, 3),
r#".##.##.
#.#.#.#
##...##
...L...
##...##
#.#.#.#
.##.##."#
.replace(' ', ""),
),
];
for (want, (x, y), input) in test_input {
let m: Map = input.parse().expect("Failed to parse map data");
assert_eq!(want, m.line_of_sight_count(x, y), "map {}", m);
}
}
#[test]
fn solution2() {
let input = r#"L.LL.LL.LL
LLLLLLL.LL
L.L.L..L..
LLLL.LL.LL
L.LL.LL.LL
L.LLLLL.LL
..L.L.....
LLLLLLLLLL
L.LLLLLL.L
L.LLLLL.LL"#
.replace(' ', "");
let steps: Vec<_> = vec![
r#"#.##.##.##
#######.##
#.#.#..#..
####.##.##
#.##.##.##
#.#####.##
..#.#.....
##########
#.######.#
#.#####.##"#,
r#"#.LL.LL.L#
#LLLLLL.LL
L.L.L..L..
LLLL.LL.LL
L.LL.LL.LL
L.LLLLL.LL
..L.L.....
LLLLLLLLL#
#.LLLLLL.L
#.LLLLL.L#"#,
r#"#.L#.##.L#
#L#####.LL
L.#.#..#..
##L#.##.##
#.##.#L.##
#.#####.#L
..#.#.....
LLL####LL#
#.L#####.L
#.L####.L#"#,
r#"#.L#.L#.L#
#LLLLLL.LL
L.L.L..#..
##LL.LL.L#
L.LL.LL.L#
#.LLLLL.LL
..L.L.....
LLLLLLLLL#
#.LLLLL#.L
#.L#LL#.L#"#,
r#"#.L#.L#.L#
#LLLLLL.LL
L.L.L..#..
##L#.#L.L#
L.L#.#L.L#
#.L####.LL
..#.#.....
LLL###LLL#
#.LLLLL#.L
#.L#LL#.L#"#,
r#"#.L#.L#.L#
#LLLLLL.LL
L.L.L..#..
##L#.#L.L#
L.L#.LL.L#
#.LLLL#.LL
..#.L.....
LLL###LLL#
#.LLLLL#.L
#.L#LL#.L#"#,
]
.iter()
.map(|s| s.replace(' ', ""))
.collect();
let mut m = input.parse().expect("Failed to parse map");
for (i, want_input) in steps.iter().enumerate() {
let want: Map = want_input
.parse()
.expect(&format!("Failed to parse step {}", i));
let got = step_solution2(&m);
assert_eq!(want, got, "step {}\nm {}", i, m);
m = got;
}
}
}

291
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@ -0,0 +1,291 @@
//! --- Day 12: Rain Risk ---
//! Your ferry made decent progress toward the island, but the storm came in faster than anyone expected. The ferry needs to take evasive actions!
//!
//! Unfortunately, the ship's navigation computer seems to be malfunctioning; rather than giving a route directly to safety, it produced extremely circuitous instructions. When the captain uses the PA system to ask if anyone can help, you quickly volunteer.
//!
//! The navigation instructions (your puzzle input) consists of a sequence of single-character actions paired with integer input values. After staring at them for a few minutes, you work out what they probably mean:
//!
//! Action N means to move north by the given value.
//! Action S means to move south by the given value.
//! Action E means to move east by the given value.
//! Action W means to move west by the given value.
//! Action L means to turn left the given number of degrees.
//! Action R means to turn right the given number of degrees.
//! Action F means to move forward by the given value in the direction the ship is currently facing.
//! The ship starts by facing east. Only the L and R actions change the direction the ship is facing. (That is, if the ship is facing east and the next instruction is N10, the ship would move north 10 units, but would still move east if the following action were F.)
//!
//! For example:
//!
//! F10
//! N3
//! F7
//! R90
//! F11
//! These instructions would be handled as follows:
//!
//! F10 would move the ship 10 units east (because the ship starts by facing east) to east 10, north 0.
//! N3 would move the ship 3 units north to east 10, north 3.
//! F7 would move the ship another 7 units east (because the ship is still facing east) to east 17, north 3.
//! R90 would cause the ship to turn right by 90 degrees and face south; it remains at east 17, north 3.
//! F11 would move the ship 11 units south to east 17, south 8.
//! At the end of these instructions, the ship's Manhattan distance (sum of the absolute values of its east/west position and its north/south position) from its starting position is 17 + 8 = 25.
//!
//! Figure out where the navigation instructions lead. What is the Manhattan distance between that location and the ship's starting position?
//! --- Part Two ---
//! Before you can give the destination to the captain, you realize that the actual action meanings were printed on the back of the instructions the whole time.
//!
//! Almost all of the actions indicate how to move a waypoint which is relative to the ship's position:
//!
//! Action N means to move the waypoint north by the given value.
//! Action S means to move the waypoint south by the given value.
//! Action E means to move the waypoint east by the given value.
//! Action W means to move the waypoint west by the given value.
//! Action L means to rotate the waypoint around the ship left (counter-clockwise) the given number of degrees.
//! Action R means to rotate the waypoint around the ship right (clockwise) the given number of degrees.
//! Action F means to move forward to the waypoint a number of times equal to the given value.
//! The waypoint starts 10 units east and 1 unit north relative to the ship. The waypoint is relative to the ship; that is, if the ship moves, the waypoint moves with it.
//!
//! For example, using the same instructions as above:
//!
//! F10 moves the ship to the waypoint 10 times (a total of 100 units east and 10 units north), leaving the ship at east 100, north 10. The waypoint stays 10 units east and 1 unit north of the ship.
//! N3 moves the waypoint 3 units north to 10 units east and 4 units north of the ship. The ship remains at east 100, north 10.
//! F7 moves the ship to the waypoint 7 times (a total of 70 units east and 28 units north), leaving the ship at east 170, north 38. The waypoint stays 10 units east and 4 units north of the ship.
//! R90 rotates the waypoint around the ship clockwise 90 degrees, moving it to 4 units east and 10 units south of the ship. The ship remains at east 170, north 38.
//! F11 moves the ship to the waypoint 11 times (a total of 44 units east and 110 units south), leaving the ship at east 214, south 72. The waypoint stays 4 units east and 10 units south of the ship.
//! After these operations, the ship's Manhattan distance from its starting position is 214 + 72 = 286.
//!
//! Figure out where the navigation instructions actually lead. What is the Manhattan distance between that location and the ship's starting position?
use aoc_runner_derive::{aoc, aoc_generator};
#[derive(Debug, PartialEq)]
enum Action {
North(u32),
South(u32),
East(u32),
West(u32),
Right(u32),
Left(u32),
Forward(u32),
}
#[derive(Clone, Copy)]
enum Orientation {
North,
South,
East,
West,
}
impl From<i32> for Orientation {
fn from(i: i32) -> Orientation {
assert_eq!(i % 90, 0);
match ((i + 360) % 360) / 90 {
0 => Orientation::North,
1 => Orientation::East,
2 => Orientation::South,
3 => Orientation::West,
c => panic!(format!("Should never see orientation of {}", c)),
}
}
}
impl Into<i32> for Orientation {
fn into(self) -> i32 {
match self {
Orientation::North => 0,
Orientation::East => 90,
Orientation::South => 180,
Orientation::West => 270,
}
}
}
use std::str::FromStr;
impl FromStr for Action {
type Err = String;
fn from_str(s: &str) -> Result<Action, String> {
let c = s
.chars()
.nth(0)
.ok_or("Couldn't get first char".to_string())?;
let v = s[1..]
.parse::<u32>()
.map_err(|e| format!("{}: '{}'", e, s))?;
use Action::*;
Ok(match c {
'N' => North(v),
'S' => South(v),
'E' => East(v),
'W' => West(v),
'R' => Right(v),
'L' => Left(v),
'F' => Forward(v),
c => return Err(format!("Unexpected action character '{}'", c)),
})
}
}
#[aoc_generator(day12)]
fn parse(input: &str) -> Vec<Action> {
input
.split('\n')
.map(|l| l.parse().expect("Failed to parse action"))
.collect()
}
struct Waypoint {
// East is +, West is -.
x: i32,
// North is +, South is -.
y: i32,
}
struct Ship {
orientation: Orientation,
// East is +, West is -.
x: i32,
// North is +, South is -.
y: i32,
waypoint: Option<Waypoint>,
}
impl Default for Ship {
fn default() -> Self {
Ship {
orientation: Orientation::East,
x: 0,
y: 0,
waypoint: None,
}
}
}
impl Ship {
fn new(waypoint_x_offset: i32, waypoint_y_offset: i32) -> Ship {
Ship {
waypoint: Some(Waypoint {
x: waypoint_x_offset,
y: waypoint_y_offset,
}),
..Ship::default()
}
}
fn act_part1(&mut self, action: &Action) {
match action {
Action::North(v) => self.y += *v as i32,
Action::South(v) => self.y -= *v as i32,
Action::East(v) => self.x += *v as i32,
Action::West(v) => self.x -= *v as i32,
Action::Right(v) => {
self.orientation = {
let i: i32 = self.orientation.into();
(i + *v as i32).into()
}
}
Action::Left(v) => {
self.orientation = {
let i: i32 = self.orientation.into();
(i - *v as i32).into()
}
}
Action::Forward(v) => match self.orientation {
Orientation::North => self.y += *v as i32,
Orientation::South => self.y -= *v as i32,
Orientation::East => self.x += *v as i32,
Orientation::West => self.x -= *v as i32,
},
};
}
fn act_part2(&mut self, action: &Action) {
let mut wp = self.waypoint.take().unwrap();
match action {
Action::North(v) => wp.y += *v as i32,
Action::South(v) => wp.y -= *v as i32,
Action::East(v) => wp.x += *v as i32,
Action::West(v) => wp.x -= *v as i32,
Action::Right(v) => {
assert_eq!(v % 90, 0);
for _ in 0..(v / 90) {
std::mem::swap(&mut wp.x, &mut wp.y);
wp.y *= -1;
}
}
Action::Left(v) => {
assert_eq!(v % 90, 0);
for _ in 0..(v / 90) {
std::mem::swap(&mut wp.x, &mut wp.y);
wp.x *= -1;
}
}
Action::Forward(v) => {
self.x += wp.x * *v as i32;
self.y += wp.y * *v as i32;
}
};
self.waypoint = Some(wp);
}
fn act(&mut self, action: &Action) {
match self.waypoint {
None => self.act_part1(action),
Some(_) => self.act_part2(action),
};
}
fn manhattan_distance(&self) -> u32 {
(self.x.abs() + self.y.abs()) as u32
}
}
#[aoc(day12, part1)]
fn solution1(actions: &[Action]) -> u32 {
let mut s = Ship::default();
actions.iter().for_each(|a| s.act(a));
s.manhattan_distance()
}
#[aoc(day12, part2)]
fn solution2(actions: &[Action]) -> u32 {
let mut s = Ship::new(10, 1);
actions.iter().for_each(|a| s.act(a));
s.manhattan_distance()
}
#[cfg(test)]
mod tests {
use super::*;
const INPUT: &'static str = r#"F10
N3
F7
R90
F11"#;
#[test]
fn parser() {
use Action::*;
assert_eq!(
parse(INPUT),
vec![Forward(10), North(3), Forward(7), Right(90), Forward(11),]
);
}
#[test]
fn part1() {
assert_eq!(solution1(&parse(INPUT)), 17 + 8);
}
#[test]
fn part2() {
assert_eq!(solution2(&parse(INPUT)), 214 + 72);
}
}

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//! --- Day 13: Shuttle Search ---
//! Your ferry can make it safely to a nearby port, but it won't get much further. When you call to book another ship, you discover that no ships embark from that port to your vacation island. You'll need to get from the port to the nearest airport.
//!
//! Fortunately, a shuttle bus service is available to bring you from the sea port to the airport! Each bus has an ID number that also indicates how often the bus leaves for the airport.
//!
//! Bus schedules are defined based on a timestamp that measures the number of minutes since some fixed reference point in the past. At timestamp 0, every bus simultaneously departed from the sea port. After that, each bus travels to the airport, then various other locations, and finally returns to the sea port to repeat its journey forever.
//!
//! The time this loop takes a particular bus is also its ID number: the bus with ID 5 departs from the sea port at timestamps 0, 5, 10, 15, and so on. The bus with ID 11 departs at 0, 11, 22, 33, and so on. If you are there when the bus departs, you can ride that bus to the airport!
//!
//! Your notes (your puzzle input) consist of two lines. The first line is your estimate of the earliest timestamp you could depart on a bus. The second line lists the bus IDs that are in service according to the shuttle company; entries that show x must be out of service, so you decide to ignore them.
//!
//! To save time once you arrive, your goal is to figure out the earliest bus you can take to the airport. (There will be exactly one such bus.)
//!
//! For example, suppose you have the following notes:
//!
//! 939
//! 7,13,x,x,59,x,31,19
//! Here, the earliest timestamp you could depart is 939, and the bus IDs in service are 7, 13, 59, 31, and 19. Near timestamp 939, these bus IDs depart at the times marked D:
//!
//! time bus 7 bus 13 bus 59 bus 31 bus 19
//! 929 . . . . .
//! 930 . . . D .
//! 931 D . . . D
//! 932 . . . . .
//! 933 . . . . .
//! 934 . . . . .
//! 935 . . . . .
//! 936 . D . . .
//! 937 . . . . .
//! 938 D . . . .
//! 939 . . . . .
//! 940 . . . . .
//! 941 . . . . .
//! 942 . . . . .
//! 943 . . . . .
//! 944 . . D . .
//! 945 D . . . .
//! 946 . . . . .
//! 947 . . . . .
//! 948 . . . . .
//! 949 . D . . .
//! The earliest bus you could take is bus ID 59. It doesn't depart until timestamp 944, so you would need to wait 944 - 939 = 5 minutes before it departs. Multiplying the bus ID by the number of minutes you'd need to wait gives 295.
//!
//! What is the ID of the earliest bus you can take to the airport multiplied by the number of minutes you'll need to wait for that bus?
//!
//! --- Part Two ---
//! The shuttle company is running a contest: one gold coin for anyone that can find the earliest timestamp such that the first bus ID departs at that time and each subsequent listed bus ID departs at that subsequent minute. (The first line in your input is no longer relevant.)
//!
//! For example, suppose you have the same list of bus IDs as above:
//!
//! 7,13,x,x,59,x,31,19
//! An x in the schedule means there are no constraints on what bus IDs must depart at that time.
//!
//! This means you are looking for the earliest timestamp (called t) such that:
//!
//! Bus ID 7 departs at timestamp t.
//! Bus ID 13 departs one minute after timestamp t.
//! There are no requirements or restrictions on departures at two or three minutes after timestamp t.
//! Bus ID 59 departs four minutes after timestamp t.
//! There are no requirements or restrictions on departures at five minutes after timestamp t.
//! Bus ID 31 departs six minutes after timestamp t.
//! Bus ID 19 departs seven minutes after timestamp t.
//! The only bus departures that matter are the listed bus IDs at their specific offsets from t. Those bus IDs can depart at other times, and other bus IDs can depart at those times. For example, in the list above, because bus ID 19 must depart seven minutes after the timestamp at which bus ID 7 departs, bus ID 7 will always also be departing with bus ID 19 at seven minutes after timestamp t.
//!
//! In this example, the earliest timestamp at which this occurs is 1068781:
//!
//! time bus 7 bus 13 bus 59 bus 31 bus 19
//! 1068773 . . . . .
//! 1068774 D . . . .
//! 1068775 . . . . .
//! 1068776 . . . . .
//! 1068777 . . . . .
//! 1068778 . . . . .
//! 1068779 . . . . .
//! 1068780 . . . . .
//! 1068781 D . . . .
//! 1068782 . D . . .
//! 1068783 . . . . .
//! 1068784 . . . . .
//! 1068785 . . D . .
//! 1068786 . . . . .
//! 1068787 . . . D .
//! 1068788 D . . . D
//! 1068789 . . . . .
//! 1068790 . . . . .
//! 1068791 . . . . .
//! 1068792 . . . . .
//! 1068793 . . . . .
//! 1068794 . . . . .
//! 1068795 D D . . .
//! 1068796 . . . . .
//! 1068797 . . . . .
//! In the above example, bus ID 7 departs at timestamp 1068788 (seven minutes after t). This is fine; the only requirement on that minute is that bus ID 19 departs then, and it does.
//!
//! Here are some other examples:
//!
//! The earliest timestamp that matches the list 17,x,13,19 is 3417.
//! 67,7,59,61 first occurs at timestamp 754018.
//! 67,x,7,59,61 first occurs at timestamp 779210.
//! 67,7,x,59,61 first occurs at timestamp 1261476.
//! 1789,37,47,1889 first occurs at timestamp 1202161486.
//! However, with so many bus IDs in your list, surely the actual earliest timestamp will be larger than 100000000000000!
//!
//! What is the earliest timestamp such that all of the listed bus IDs depart at offsets matching their positions in the list?
use aoc_runner_derive::{aoc, aoc_generator};
#[derive(Debug, Default, PartialEq)]
struct Schedule {
time: u32,
buses: Vec<u32>,
}
#[aoc_generator(day13, part1)]
fn parse1(input: &str) -> Schedule {
let mut it = input.split('\n');
let time = it
.next()
.expect("Premature EOF")
.parse()
.expect("Can't parse time");
let buses = it
.next()
.expect("Premature EOF")
.split(',')
.filter_map(|s| s.parse::<u32>().ok())
.collect();
Schedule { time, buses }
}
#[aoc(day13, part1)]
fn solution1(sch: &Schedule) -> u32 {
let (bus, next) = sch
.buses
.iter()
// Find the next bus time after sch.time.
.map(|b| (b, b * ((sch.time / b) + 1)))
// Find the earliest next bus time.
.min_by(|i1, i2| i1.1.cmp(&i2.1))
.unwrap();
bus * (next - sch.time)
}
#[derive(Copy, Clone, Debug)]
struct Departure {
bus: usize,
delay: usize,
}
#[aoc_generator(day13, part2)]
fn parse2(input: &str) -> Vec<Departure> {
let mut it = input.split('\n');
let _ = it.next().expect("Premature EOF");
it.next()
.expect("Premature EOF")
.split(',')
.enumerate()
.filter_map(|(i, s)| Some((i, s.parse::<usize>().ok()?)))
.map(|(delay, bus)| Departure { bus, delay })
.collect()
}
fn inv_mod(a: usize, m: usize) -> usize {
{
let a = a % m;
for i in 1..m {
if (a * i) % m == 1 {
return i;
}
}
}
panic!(format!("no inverse modulo found for {}^-1 % {}", a, m));
}
/// Based on http://homepages.math.uic.edu/~leon/mcs425-s08/handouts/chinese_remainder.pdf
/// a_m is a Vec with (a, m) as used in the above PDF. m are pairwise relatively prime positive
/// integers and a are any integers.
fn chinese_remainder(a_m: Vec<(usize, usize)>) -> usize {
let a: Vec<_> = a_m.iter().map(|(a, _m)| a).collect();
let m: Vec<_> = a_m.iter().map(|(_a, m)| m).collect();
let m_all = m.iter().fold(1, |acc, m| *m * acc);
let z: Vec<_> = m.iter().map(|m| m_all / *m).collect();
let y: Vec<_> = m
.iter()
.zip(z.iter())
.map(|(m, z)| inv_mod(*z, **m))
.collect();
let w: Vec<_> = y
.iter()
.zip(z.iter())
.map(|(y, z)| (*y * *z) % m_all)
.collect();
let x = a
.iter()
.zip(w.iter())
.fold(0, |acc, (a, w)| acc + (*a * *w));
x % m_all
}
#[aoc(day13, part2)]
fn solution2(sch: &[Departure]) -> usize {
let a_m: Vec<(_, _)> = sch.iter().map(|d| (d.bus - d.delay, d.bus)).collect();
chinese_remainder(a_m)
}
#[cfg(test)]
mod tests {
use super::*;
const INPUT: &'static str = r#"939
7,13,x,x,59,x,31,19"#;
#[test]
fn parsing1() {
assert_eq!(
parse1(INPUT),
Schedule {
time: 939,
buses: vec![7, 13, 59, 31, 19],
}
);
}
#[test]
fn part1() {
assert_eq!(solution1(&parse1(INPUT)), 295);
}
#[test]
fn part2() {
for (input, want) in vec![
("17,x,13,19", 3417),
("67,7,59,61", 754018),
("67,x,7,59,61", 779210),
("7,13,x,x,59,x,31,19", 1068781),
("67,7,x,59,61", 1261476),
("1789,37,47,1889", 1202161486),
] {
// Insert fake header '123\n' to make the parse2 function happy.
assert_eq!(solution2(&parse2(&format!("123\n{}", input))), want);
}
}
#[test]
fn inverse_modulo() {
assert_eq!(inv_mod(8400, 11), 8);
assert_eq!(inv_mod(7, 11), 8);
assert_eq!(inv_mod(5775, 16), 15);
assert_eq!(inv_mod(15, 16), 15);
assert_eq!(inv_mod(4400, 21), 2);
assert_eq!(inv_mod(11, 21), 2);
assert_eq!(inv_mod(3696, 25), 6);
assert_eq!(inv_mod(21, 25), 6);
assert_eq!(inv_mod(243257, 11), 4);
assert_eq!(inv_mod(3, 11), 4);
assert_eq!(inv_mod(243257, 13), 1);
}
#[test]
fn chinese_remainder_theorem() {
assert_eq!(chinese_remainder(vec![(2, 5), (3, 7)]), 17);
assert_eq!(chinese_remainder(vec![(1, 3), (4, 5), (6, 7)]), 34);
assert_eq!(chinese_remainder(vec![(3, 5), (2, 6), (4, 7)]), 158);
assert_eq!(
chinese_remainder(vec![(1, 5), (2, 7), (3, 9), (4, 11)]),
1731
);
// http://homepages.math.uic.edu/~leon/mcs425-s08/handouts/chinese_remainder.pdf
// says this answer is 51669 which doesn't check out.
assert_eq!(
chinese_remainder(vec![(6, 11), (13, 16), (9, 21), (19, 25),]),
89469
);
}
}

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//! --- Day 14: Docking Data ---
//! As your ferry approaches the sea port, the captain asks for your help again. The computer system that runs this port isn't compatible with the docking program on the ferry, so the docking parameters aren't being correctly initialized in the docking program's memory.
//!
//! After a brief inspection, you discover that the sea port's computer system uses a strange bitmask system in its initialization program. Although you don't have the correct decoder chip handy, you can emulate it in software!
//!
//! The initialization program (your puzzle input) can either update the bitmask or write a value to memory. Values and memory addresses are both 36-bit unsigned integers. For example, ignoring bitmasks for a moment, a line like mem[8] = 11 would write the value 11 to memory address 8.
//!
//! The bitmask is always given as a string of 36 bits, written with the most significant bit (representing 2^35) on the left and the least significant bit (2^0, that is, the 1s bit) on the right. The current bitmask is applied to values immediately before they are written to memory: a 0 or 1 overwrites the corresponding bit in the value, while an X leaves the bit in the value unchanged.
//!
//! For example, consider the following program:
//!
//! mask = XXXXXXXXXXXXXXXXXXXXXXXXXXXXX1XXXX0X
//! mem[8] = 11
//! mem[7] = 101
//! mem[8] = 0
//! This program starts by specifying a bitmask (mask = ....). The mask it specifies will overwrite two bits in every written value: the 2s bit is overwritten with 0, and the 64s bit is overwritten with 1.
//!
//! The program then attempts to write the value 11 to memory address 8. By expanding everything out to individual bits, the mask is applied as follows:
//!
//! value: 000000000000000000000000000000001011 (decimal 11)
//! mask: XXXXXXXXXXXXXXXXXXXXXXXXXXXXX1XXXX0X
//! result: 000000000000000000000000000001001001 (decimal 73)
//! So, because of the mask, the value 73 is written to memory address 8 instead. Then, the program tries to write 101 to address 7:
//!
//! value: 000000000000000000000000000001100101 (decimal 101)
//! mask: XXXXXXXXXXXXXXXXXXXXXXXXXXXXX1XXXX0X
//! result: 000000000000000000000000000001100101 (decimal 101)
//! This time, the mask has no effect, as the bits it overwrote were already the values the mask tried to set. Finally, the program tries to write 0 to address 8:
//!
//! value: 000000000000000000000000000000000000 (decimal 0)
//! mask: XXXXXXXXXXXXXXXXXXXXXXXXXXXXX1XXXX0X
//! result: 000000000000000000000000000001000000 (decimal 64)
//! 64 is written to address 8 instead, overwriting the value that was there previously.
//!
//! To initialize your ferry's docking program, you need the sum of all values left in memory after the initialization program completes. (The entire 36-bit address space begins initialized to the value 0 at every address.) In the above example, only two values in memory are not zero - 101 (at address 7) and 64 (at address 8) - producing a sum of 165.
//!
//! Execute the initialization program. What is the sum of all values left in memory after it completes?
//!
//! --- Part Two ---
//! For some reason, the sea port's computer system still can't communicate with your ferry's docking program. It must be using version 2 of the decoder chip!
//!
//! A version 2 decoder chip doesn't modify the values being written at all. Instead, it acts as a memory address decoder. Immediately before a value is written to memory, each bit in the bitmask modifies the corresponding bit of the destination memory address in the following way:
//!
//! If the bitmask bit is 0, the corresponding memory address bit is unchanged.
//! If the bitmask bit is 1, the corresponding memory address bit is overwritten with 1.
//! If the bitmask bit is X, the corresponding memory address bit is floating.
//! A floating bit is not connected to anything and instead fluctuates unpredictably. In practice, this means the floating bits will take on all possible values, potentially causing many memory addresses to be written all at once!
//!
//! For example, consider the following program:
//!
//! mask = 000000000000000000000000000000X1001X
//! mem[42] = 100
//! mask = 00000000000000000000000000000000X0XX
//! mem[26] = 1
//! When this program goes to write to memory address 42, it first applies the bitmask:
//!
//! address: 000000000000000000000000000000101010 (decimal 42)
//! mask: 000000000000000000000000000000X1001X
//! result: 000000000000000000000000000000X1101X
//! After applying the mask, four bits are overwritten, three of which are different, and two of which are floating. Floating bits take on every possible combination of values; with two floating bits, four actual memory addresses are written:
//!
//! 000000000000000000000000000000011010 (decimal 26)
//! 000000000000000000000000000000011011 (decimal 27)
//! 000000000000000000000000000000111010 (decimal 58)
//! 000000000000000000000000000000111011 (decimal 59)
//! Next, the program is about to write to memory address 26 with a different bitmask:
//!
//! address: 000000000000000000000000000000011010 (decimal 26)
//! mask: 00000000000000000000000000000000X0XX
//! result: 00000000000000000000000000000001X0XX
//! This results in an address with three floating bits, causing writes to eight memory addresses:
//!
//! 000000000000000000000000000000010000 (decimal 16)
//! 000000000000000000000000000000010001 (decimal 17)
//! 000000000000000000000000000000010010 (decimal 18)
//! 000000000000000000000000000000010011 (decimal 19)
//! 000000000000000000000000000000011000 (decimal 24)
//! 000000000000000000000000000000011001 (decimal 25)
//! 000000000000000000000000000000011010 (decimal 26)
//! 000000000000000000000000000000011011 (decimal 27)
//! The entire 36-bit address space still begins initialized to the value 0 at every address, and you still need the sum of all values left in memory at the end of the program. In this example, the sum is 208.
//!
//! Execute the initialization program using an emulator for a version 2 decoder chip. What is the sum of all values left in memory after it completes?
use std::collections::HashMap;
use std::str::FromStr;
use aoc_runner_derive::aoc;
// Machine bit width.
const BIT_WITDH: u8 = 36;
#[derive(Default)]
struct Mask {
mask: usize,
value: usize,
}
impl FromStr for Mask {
type Err = ();
fn from_str(s: &str) -> Result<Mask, ()> {
let mut mask = 0;
let mut value = 0;
s.bytes().for_each(|v| match v {
b'X' => {
mask <<= 1;
mask |= 1;
value <<= 1;
}
b'1' => {
mask <<= 1;
value <<= 1;
value |= 1;
}
b'0' => {
mask <<= 1;
value <<= 1;
}
c => panic!(format!("Unhandled mask character '{}'", c)),
});
Ok(Mask { mask, value })
}
}
impl Mask {
fn apply(&self, v: usize) -> usize {
v & self.mask | self.value
}
// TODO(wathiede): make this an Iterator?
fn decode(&self, v: usize) -> Vec<usize> {
// Add decoded value with all floaters set to zero.
let mut res = vec![(v | self.value) & !self.mask];
for bit in 0..BIT_WITDH {
let set = self.mask & (1 << bit);
if set > 0 {
// Floater
let ext: Vec<_> = res.iter().map(|v| v | set).collect();
res.extend(ext);
}
}
res
}
}
use std::fmt;
impl fmt::Debug for Mask {
fn fmt(&self, f: &mut fmt::Formatter<'_>) -> fmt::Result {
write!(f, "mask: {:036b} value {:036b}", self.mask, self.value)
}
}
#[derive(Debug, Eq, PartialEq)]
struct Address(usize);
impl FromStr for Address {
type Err = ();
fn from_str(s: &str) -> Result<Address, ()> {
Ok(Address(
s.strip_prefix("mem[")
.ok_or(())?
.strip_suffix("]")
.ok_or(())?
.parse()
.map_err(|_| ())?,
))
}
}
#[aoc(day14, part1)]
fn solution1(input: &str) -> usize {
let mut mem: HashMap<usize, usize> = HashMap::new();
let mut mask = Mask::default();
input.split('\n').for_each(|l| {
let (cmd, arg) = l.split_at(l.find(" = ").expect("Couldn't find space wrapped ="));
let arg = &arg[3..];
match cmd {
"mask" => mask = arg.parse().expect("Couldn't parse mask"),
_ => {
let addr: Address = cmd.parse().expect("Couldn't parse address");
let val = mask.apply(arg.parse().expect("Couldn't pass arg"));
mem.insert(addr.0, val);
}
};
});
mem.values().fold(0, |acc, v| acc + v)
}
#[aoc(day14, part2)]
fn solution2(input: &str) -> usize {
let mut mem: HashMap<usize, usize> = HashMap::new();
let mut mask = Mask::default();
input.split('\n').for_each(|l| {
let (cmd, arg) = l.split_at(l.find(" = ").expect("Couldn't find space wrapped ="));
let arg = &arg[3..];
match cmd {
"mask" => mask = arg.parse().expect("Couldn't parse mask"),
_ => {
let addr: Address = cmd.parse().expect("Couldn't parse address");
let val = arg.parse().expect("Couldn't pass arg");
for dec_addr in mask.decode(addr.0) {
mem.insert(dec_addr, val);
}
}
};
});
mem.values().fold(0, |acc, v| acc + v)
}
#[cfg(test)]
mod tests {
use super::*;
const INPUT1: &'static str = r#"mask = XXXXXXXXXXXXXXXXXXXXXXXXXXXXX1XXXX0X
mem[8] = 11
mem[7] = 101
mem[8] = 0"#;
#[test]
fn test_solution1() {
assert_eq!(solution1(INPUT1), 165);
}
const INPUT2: &'static str = r#"mask = 000000000000000000000000000000X1001X
mem[42] = 100
mask = 00000000000000000000000000000000X0XX
mem[26] = 1"#;
#[test]
fn test_solution2() {
assert_eq!(solution2(INPUT2), 208);
}
#[test]
fn mask_decode() {
let m: Mask = "000000000000000000000000000000X1001X".parse().unwrap();
assert_eq!(m.decode(42), vec![26, 27, 58, 59]);
let m: Mask = "00000000000000000000000000000000X0XX".parse().unwrap();
assert_eq!(m.decode(26), vec![16, 17, 18, 19, 24, 25, 26, 27]);
}
}

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//! --- Day 15: Rambunctious Recitation ---
//! You catch the airport shuttle and try to book a new flight to your vacation island. Due to the storm, all direct flights have been cancelled, but a route is available to get around the storm. You take it.
//!
//! While you wait for your flight, you decide to check in with the Elves back at the North Pole. They're playing a memory game and are ever so excited to explain the rules!
//!
//! In this game, the players take turns saying numbers. They begin by taking turns reading from a list of starting numbers (your puzzle input). Then, each turn consists of considering the most recently spoken number:
//!
//! If that was the first time the number has been spoken, the current player says 0.
//! Otherwise, the number had been spoken before; the current player announces how many turns apart the number is from when it was previously spoken.
//! So, after the starting numbers, each turn results in that player speaking aloud either 0 (if the last number is new) or an age (if the last number is a repeat).
//!
//! For example, suppose the starting numbers are 0,3,6:
//!
//! Turn 1: The 1st number spoken is a starting number, 0.
//! Turn 2: The 2nd number spoken is a starting number, 3.
//! Turn 3: The 3rd number spoken is a starting number, 6.
//! Turn 4: Now, consider the last number spoken, 6. Since that was the first time the number had been spoken, the 4th number spoken is 0.
//! Turn 5: Next, again consider the last number spoken, 0. Since it had been spoken before, the next number to speak is the difference between the turn number when it was last spoken (the previous turn, 4) and the turn number of the time it was most recently spoken before then (turn 1). Thus, the 5th number spoken is 4 - 1, 3.
//! Turn 6: The last number spoken, 3 had also been spoken before, most recently on turns 5 and 2. So, the 6th number spoken is 5 - 2, 3.
//! Turn 7: Since 3 was just spoken twice in a row, and the last two turns are 1 turn apart, the 7th number spoken is 1.
//! Turn 8: Since 1 is new, the 8th number spoken is 0.
//! Turn 9: 0 was last spoken on turns 8 and 4, so the 9th number spoken is the difference between them, 4.
//! Turn 10: 4 is new, so the 10th number spoken is 0.
//! (The game ends when the Elves get sick of playing or dinner is ready, whichever comes first.)
//!
//! Their question for you is: what will be the 2020th number spoken? In the example above, the 2020th number spoken will be 436.
//!
//! Here are a few more examples:
//!
//! Given the starting numbers 1,3,2, the 2020th number spoken is 1.
//! Given the starting numbers 2,1,3, the 2020th number spoken is 10.
//! Given the starting numbers 1,2,3, the 2020th number spoken is 27.
//! Given the starting numbers 2,3,1, the 2020th number spoken is 78.
//! Given the starting numbers 3,2,1, the 2020th number spoken is 438.
//! Given the starting numbers 3,1,2, the 2020th number spoken is 1836.
//! Given your starting numbers, what will be the 2020th number spoken?
//!
//! --- Part Two ---
//! Impressed, the Elves issue you a challenge: determine the 30000000th number spoken. For example, given the same starting numbers as above:
//!
//! Given 0,3,6, the 30000000th number spoken is 175594.
//! Given 1,3,2, the 30000000th number spoken is 2578.
//! Given 2,1,3, the 30000000th number spoken is 3544142.
//! Given 1,2,3, the 30000000th number spoken is 261214.
//! Given 2,3,1, the 30000000th number spoken is 6895259.
//! Given 3,2,1, the 30000000th number spoken is 18.
//! Given 3,1,2, the 30000000th number spoken is 362.
//! Given your starting numbers, what will be the 30000000th number spoken?
use aoc_runner_derive::aoc;
#[aoc(day15, part1)]
fn solution1(input: &str) -> usize {
const ANSWER_IDX: usize = 2020;
let mut history = Vec::with_capacity(ANSWER_IDX);
input
.split(',')
.map(|s| s.parse().expect("couldn't parse number"))
.for_each(|n| history.push(n));
let mut last = history[history.len() - 1];
(history.len()..ANSWER_IDX).for_each(|i| {
// Search backwards for the last number seen. If it's not found, we append 0 to history.
// If it's found, we append the distance.
let next = match history[..i - 1]
.iter()
.rev()
.enumerate()
.skip_while(|(_i, v)| **v != last)
.map(|(i, _v)| i)
.nth(0)
{
None => 0,
Some(i) => i + 1,
};
history.push(next);
last = next;
});
history[ANSWER_IDX - 1]
}
#[aoc(day15, part2)]
fn solution2(input: &str) -> usize {
const ANSWER_IDX: usize = 30000000;
solution2_impl(input, ANSWER_IDX)
}
use std::collections::HashMap;
fn solution2_impl(input: &str, idx: usize) -> usize {
let starter: Vec<_> = input
.split(',')
.map(|s| s.parse().expect("couldn't parse number"))
.collect();
let mut history: HashMap<usize, usize> = starter
.into_iter()
.enumerate()
.map(|(i, n)| (n, i))
.collect();
let mut last = 0;
let mut spoken = 0;
(history.len()..idx).for_each(|i| {
match history.get_mut(&spoken) {
Some(entry) => {
last = spoken;
spoken = i - *entry;
*entry = i;
}
None => {
last = spoken;
history.insert(spoken, i);
spoken = 0;
}
};
});
last
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_solution1() {
for (input, want) in vec![
("1,3,2", 1),
("2,1,3", 10),
("1,2,3", 27),
("2,3,1", 78),
("3,2,1", 438),
("3,1,2", 1836),
] {
assert_eq!(solution1(input), want);
}
}
#[test]
fn test_solution2_impl() {
for (input, want) in vec![
("0,3,6", 436),
("1,3,2", 1),
("2,1,3", 10),
("1,2,3", 27),
("2,3,1", 78),
("3,2,1", 438),
("3,1,2", 1836),
] {
assert_eq!(solution2_impl(input, 2020), want);
}
}
// This is slow
// #[test]
// fn test_solution2() {
// for (input, want) in vec![
// //("0,3,6", 175594),
// ("1,3,2", 2578),
// ("2,1,3", 3544142),
// ("1,2,3", 261214),
// ("2,3,1", 6895259),
// ("3,2,1", 18),
// ("3,1,2", 362),
// ] {
// assert_eq!(solution2(input), want);
// }
// }
}

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//! --- Day 16: Ticket Translation ---
//! As you're walking to yet another connecting flight, you realize that one of the legs of your re-routed trip coming up is on a high-speed train. However, the train ticket you were given is in a language you don't understand. You should probably figure out what it says before you get to the train station after the next flight.
//!
//! Unfortunately, you can't actually read the words on the ticket. You can, however, read the numbers, and so you figure out the fields these tickets must have and the valid ranges for values in those fields.
//!
//! You collect the rules for ticket fields, the numbers on your ticket, and the numbers on other nearby tickets for the same train service (via the airport security cameras) together into a single document you can reference (your puzzle input).
//!
//! The rules for ticket fields specify a list of fields that exist somewhere on the ticket and the valid ranges of values for each field. For example, a rule like class: 1-3 or 5-7 means that one of the fields in every ticket is named class and can be any value in the ranges 1-3 or 5-7 (inclusive, such that 3 and 5 are both valid in this field, but 4 is not).
//!
//! Each ticket is represented by a single line of comma-separated values. The values are the numbers on the ticket in the order they appear; every ticket has the same format. For example, consider this ticket:
//!
//! .--------------------------------------------------------.
//! | ????: 101 ?????: 102 ??????????: 103 ???: 104 |
//! | |
//! | ??: 301 ??: 302 ???????: 303 ??????? |
//! | ??: 401 ??: 402 ???? ????: 403 ????????? |
//! '--------------------------------------------------------'
//! Here, ? represents text in a language you don't understand. This ticket might be represented as 101,102,103,104,301,302,303,401,402,403; of course, the actual train tickets you're looking at are much more complicated. In any case, you've extracted just the numbers in such a way that the first number is always the same specific field, the second number is always a different specific field, and so on - you just don't know what each position actually means!
//!
//! Start by determining which tickets are completely invalid; these are tickets that contain values which aren't valid for any field. Ignore your ticket for now.
//!
//! For example, suppose you have the following notes:
//!
//! class: 1-3 or 5-7
//! row: 6-11 or 33-44
//! seat: 13-40 or 45-50
//!
//! your ticket:
//! 7,1,14
//!
//! nearby tickets:
//! 7,3,47
//! 40,4,50
//! 55,2,20
//! 38,6,12
//! It doesn't matter which position corresponds to which field; you can identify invalid nearby tickets by considering only whether tickets contain values that are not valid for any field. In this example, the values on the first nearby ticket are all valid for at least one field. This is not true of the other three nearby tickets: the values 4, 55, and 12 are are not valid for any field. Adding together all of the invalid values produces your ticket scanning error rate: 4 + 55 + 12 = 71.
//!
//! Consider the validity of the nearby tickets you scanned. What is your ticket scanning error rate?
//!
//! --- Part Two ---
//! Now that you've identified which tickets contain invalid values, discard those tickets entirely. Use the remaining valid tickets to determine which field is which.
//!
//! Using the valid ranges for each field, determine what order the fields appear on the tickets. The order is consistent between all tickets: if seat is the third field, it is the third field on every ticket, including your ticket.
//!
//! For example, suppose you have the following notes:
//!
//! class: 0-1 or 4-19
//! row: 0-5 or 8-19
//! seat: 0-13 or 16-19
//!
//! your ticket:
//! 11,12,13
//!
//! nearby tickets:
//! 3,9,18
//! 15,1,5
//! 5,14,9
//! Based on the nearby tickets in the above example, the first position must be row, the second position must be class, and the third position must be seat; you can conclude that in your ticket, class is 12, row is 11, and seat is 13.
//!
//! Once you work out which field is which, look for the six fields on your ticket that start with the word departure. What do you get if you multiply those six values together?
use std::collections::HashMap;
use std::ops::Range;
use std::str::FromStr;
use aoc_runner_derive::{aoc, aoc_generator};
#[derive(Debug, PartialEq)]
struct Rule {
name: String,
low: Range<usize>,
high: Range<usize>,
}
/// Parses "2-4" into Range(2..5).
fn from_range(s: &str) -> Result<Range<usize>, String> {
let mut it = s.split('-');
let low = it
.next()
.ok_or("low range".to_string())?
.parse()
.map_err(|e| format!("{}", e))?;
let high = it
.next()
.ok_or("high range".to_string())?
.parse::<usize>()
.map_err(|e| format!("{}", e))?;
Ok(low..high + 1)
}
impl FromStr for Rule {
type Err = String;
fn from_str(s: &str) -> Result<Rule, String> {
let c_idx = s.find(":").expect("missing :");
let name = s[..c_idx].to_string();
let mut it = s[c_idx + 2..].split(' ');
let low = from_range(it.next().ok_or("get low")?)?;
let _ = it.next().ok_or("missing 'or'".to_string())?;
let high = from_range(it.next().ok_or("get high")?)?;
Ok(Rule { name, low, high })
}
}
#[derive(Debug, PartialEq)]
struct Ticket {
nums: Vec<usize>,
}
impl FromStr for Ticket {
type Err = String;
fn from_str(s: &str) -> Result<Ticket, String> {
Ok(Ticket {
nums: s
.split(',')
.map(|s| s.parse().map_err(|e| format!("{}", e)))
.collect::<Result<Vec<_>, String>>()?,
})
}
}
fn reduce_possibilities(possibilities: HashMap<usize, Vec<String>>) -> HashMap<usize, String> {
let mut p = possibilities.clone();
let mut uniq = HashMap::new();
loop {
let mut rm = Vec::new();
// Extract all the columns with only one possible answer.
p.iter().for_each(|(k, v)| {
if v.len() == 1 {
let word = v[0].to_string();
rm.push(word.to_string());
uniq.insert(*k, word);
}
});
// Remove all the assigned columns from columns that have multiple possibilities.
p = p
.into_iter()
.filter_map(|(k, v)| {
let v: Vec<_> = v.into_iter().filter(|w| !rm.contains(w)).collect();
if v.is_empty() {
None
} else {
Some((k, v))
}
})
.collect();
if p.is_empty() {
break;
}
}
uniq
}
#[derive(Debug, PartialEq)]
struct Notes {
rules: Vec<Rule>,
my: Ticket,
nearby: Vec<Ticket>,
}
impl Notes {
fn valid(&self, n: usize) -> bool {
for r in &self.rules {
if r.low.contains(&n) || r.high.contains(&n) {
return true;
}
}
false
}
fn valid_ticket(&self, t: &Ticket) -> bool {
t.nums.iter().all(|n| self.valid(*n))
}
fn invalid_nums(&self, t: &Ticket) -> Vec<usize> {
t.nums
.iter()
.filter(|n| !self.valid(**n))
.cloned()
.collect()
}
fn valid_column<'a, I>(&self, idx: usize, mut tickets: I, r: &Rule) -> bool
where
I: Iterator<Item = &'a &'a Ticket>,
{
tickets.all(|t| r.low.contains(&t.nums[idx]) || r.high.contains(&t.nums[idx]))
}
/// translate will apply `rules` to all valid tickets to compute which column maps to each
/// rule.
fn translate(&self) -> HashMap<String, usize> {
let valid_tickets: Vec<_> = self
.nearby
.iter()
.filter(|t| self.valid_ticket(t))
.collect();
use std::iter::once;
let possibilities: HashMap<_, _> = (0..self.my.nums.len())
.map(|i| {
let possible = self
.rules
.iter()
.filter(|r| {
self.valid_column(i, once(&&self.my).chain(valid_tickets.iter()), r)
})
.map(|r| r.name.to_string())
.collect::<Vec<_>>();
(i, possible)
})
.collect();
reduce_possibilities(possibilities)
.into_iter()
.map(|(i, name)| (name, i))
.collect()
}
}
#[aoc_generator(day16)]
fn parse1(input: &str) -> Notes {
let mut it = input.split("\n\n");
let rules: Vec<Rule> = it
.next()
.expect("EOF1")
.split('\n')
.map(|l| l.parse().expect("rules"))
.collect();
let my: Ticket = it
.next()
.expect("EOF2")
.split('\n')
.skip(1)
.nth(0)
.map(|l| l.parse().expect("my parse"))
.expect("my");
let nearby: Vec<Ticket> = it
.next()
.expect("EOF3")
.split('\n')
.skip(1)
.map(|l| l.parse().expect("rules"))
.collect();
Notes { rules, my, nearby }
}
#[aoc(day16, part1)]
fn solution1(notes: &Notes) -> usize {
notes
.nearby
.iter()
.flat_map(|t| notes.invalid_nums(t))
.sum()
}
#[aoc(day16, part2)]
fn solution2(notes: &Notes) -> usize {
let t = notes.translate();
let idxs: Vec<_> = t
.iter()
.filter_map(|(k, v)| {
if k.starts_with("departure") {
Some(v)
} else {
None
}
})
.collect();
idxs.into_iter().map(|i| notes.my.nums[*i]).product()
}
#[cfg(test)]
mod tests {
use super::*;
const INPUT1: &'static str = r#"class: 1-3 or 5-7
row: 6-11 or 33-44
seat: 13-40 or 45-50
your ticket:
7,1,14
nearby tickets:
7,3,47
40,4,50
55,2,20
38,6,12"#;
#[test]
fn test_parse1() {
assert_eq!(
parse1(INPUT1),
Notes {
rules: vec![
Rule {
name: "class".to_string(),
low: 1..4,
high: 5..8,
},
Rule {
name: "row".to_string(),
low: 6..12,
high: 33..45,
},
Rule {
name: "seat".to_string(),
low: 13..41,
high: 45..51,
},
],
my: Ticket {
nums: vec![7, 1, 14],
},
nearby: vec![
Ticket {
nums: vec![7, 3, 47]
},
Ticket {
nums: vec![40, 4, 50]
},
Ticket {
nums: vec![55, 2, 20]
},
Ticket {
nums: vec![38, 6, 12]
},
],
}
);
}
#[test]
fn test_solution1() {
assert_eq!(solution1(&parse1(INPUT1)), 4 + 55 + 12);
}
const INPUT2: &'static str = r#"class: 0-1 or 4-19
row: 0-5 or 8-19
seat: 0-13 or 16-19
your ticket:
11,12,13
nearby tickets:
3,9,18
15,1,5
5,14,9"#;
#[test]
fn translate() {
let notes = parse1(&INPUT2);
assert_eq!(
notes.translate(),
vec![
("class".to_string(), 1),
("row".to_string(), 0),
("seat".to_string(), 2),
]
.into_iter()
.collect::<HashMap<String, usize>>()
);
}
}

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//! --- Day 17: Conway Cubes ---
//! As your flight slowly drifts through the sky, the Elves at the Mythical Information Bureau at the North Pole contact you. They'd like some help debugging a malfunctioning experimental energy source aboard one of their super-secret imaging satellites.
//!
//! The experimental energy source is based on cutting-edge technology: a set of Conway Cubes contained in a pocket dimension! When you hear it's having problems, you can't help but agree to take a look.
//!
//! The pocket dimension contains an infinite 3-dimensional grid. At every integer 3-dimensional coordinate (x,y,z), there exists a single cube which is either active or inactive.
//!
//! In the initial state of the pocket dimension, almost all cubes start inactive. The only exception to this is a small flat region of cubes (your puzzle input); the cubes in this region start in the specified active (#) or inactive (.) state.
//!
//! The energy source then proceeds to boot up by executing six cycles.
//!
//! Each cube only ever considers its neighbors: any of the 26 other cubes where any of their coordinates differ by at most 1. For example, given the cube at x=1,y=2,z=3, its neighbors include the cube at x=2,y=2,z=2, the cube at x=0,y=2,z=3, and so on.
//!
//! During a cycle, all cubes simultaneously change their state according to the following rules:
//!
//! If a cube is active and exactly 2 or 3 of its neighbors are also active, the cube remains active. Otherwise, the cube becomes inactive.
//! If a cube is inactive but exactly 3 of its neighbors are active, the cube becomes active. Otherwise, the cube remains inactive.
//! The engineers responsible for this experimental energy source would like you to simulate the pocket dimension and determine what the configuration of cubes should be at the end of the six-cycle boot process.
//!
//! For example, consider the following initial state:
//!
//! .#.
//! ..#
//! ###
//! Even though the pocket dimension is 3-dimensional, this initial state represents a small 2-dimensional slice of it. (In particular, this initial state defines a 3x3x1 region of the 3-dimensional space.)
//!
//! Simulating a few cycles from this initial state produces the following configurations, where the result of each cycle is shown layer-by-layer at each given z coordinate (and the frame of view follows the active cells in each cycle):
//!
//! Before any cycles:
//!
//! z=0
//! .#.
//! ..#
//! ###
//!
//!
//! After 1 cycle:
//!
//! z=-1
//! #..
//! ..#
//! .#.
//!
//! z=0
//! #.#
//! .##
//! .#.
//!
//! z=1
//! #..
//! ..#
//! .#.
//!
//!
//! After 2 cycles:
//!
//! z=-2
//! .....
//! .....
//! ..#..
//! .....
//! .....
//!
//! z=-1
//! ..#..
//! .#..#
//! ....#
//! .#...
//! .....
//!
//! z=0
//! ##...
//! ##...
//! #....
//! ....#
//! .###.
//!
//! z=1
//! ..#..
//! .#..#
//! ....#
//! .#...
//! .....
//!
//! z=2
//! .....
//! .....
//! ..#..
//! .....
//! .....
//!
//!
//! After 3 cycles:
//!
//! z=-2
//! .......
//! .......
//! ..##...
//! ..###..
//! .......
//! .......
//! .......
//!
//! z=-1
//! ..#....
//! ...#...
//! #......
//! .....##
//! .#...#.
//! ..#.#..
//! ...#...
//!
//! z=0
//! ...#...
//! .......
//! #......
//! .......
//! .....##
//! .##.#..
//! ...#...
//!
//! z=1
//! ..#....
//! ...#...
//! #......
//! .....##
//! .#...#.
//! ..#.#..
//! ...#...
//!
//! z=2
//! .......
//! .......
//! ..##...
//! ..###..
//! .......
//! .......
//! .......
//! After the full six-cycle boot process completes, 112 cubes are left in the active state.
//!
//! Starting with your given initial configuration, simulate six cycles. How many cubes are left in the active state after the sixth cycle?
//! --- Part Two ---
//! For some reason, your simulated results don't match what the experimental energy source engineers expected. Apparently, the pocket dimension actually has four spatial dimensions, not three.
//!
//! The pocket dimension contains an infinite 4-dimensional grid. At every integer 4-dimensional coordinate (x,y,z,w), there exists a single cube (really, a hypercube) which is still either active or inactive.
//!
//! Each cube only ever considers its neighbors: any of the 80 other cubes where any of their coordinates differ by at most 1. For example, given the cube at x=1,y=2,z=3,w=4, its neighbors include the cube at x=2,y=2,z=3,w=3, the cube at x=0,y=2,z=3,w=4, and so on.
//!
//! The initial state of the pocket dimension still consists of a small flat region of cubes. Furthermore, the same rules for cycle updating still apply: during each cycle, consider the number of active neighbors of each cube.
//!
//! For example, consider the same initial state as in the example above. Even though the pocket dimension is 4-dimensional, this initial state represents a small 2-dimensional slice of it. (In particular, this initial state defines a 3x3x1x1 region of the 4-dimensional space.)
//!
//! Simulating a few cycles from this initial state produces the following configurations, where the result of each cycle is shown layer-by-layer at each given z and w coordinate:
//!
//! Before any cycles:
//!
//! z=0, w=0
//! .#.
//! ..#
//! ###
//!
//!
//! After 1 cycle:
//!
//! z=-1, w=-1
//! #..
//! ..#
//! .#.
//!
//! z=0, w=-1
//! #..
//! ..#
//! .#.
//!
//! z=1, w=-1
//! #..
//! ..#
//! .#.
//!
//! z=-1, w=0
//! #..
//! ..#
//! .#.
//!
//! z=0, w=0
//! #.#
//! .##
//! .#.
//!
//! z=1, w=0
//! #..
//! ..#
//! .#.
//!
//! z=-1, w=1
//! #..
//! ..#
//! .#.
//!
//! z=0, w=1
//! #..
//! ..#
//! .#.
//!
//! z=1, w=1
//! #..
//! ..#
//! .#.
//!
//!
//! After 2 cycles:
//!
//! z=-2, w=-2
//! .....
//! .....
//! ..#..
//! .....
//! .....
//!
//! z=-1, w=-2
//! .....
//! .....
//! .....
//! .....
//! .....
//!
//! z=0, w=-2
//! ###..
//! ##.##
//! #...#
//! .#..#
//! .###.
//!
//! z=1, w=-2
//! .....
//! .....
//! .....
//! .....
//! .....
//!
//! z=2, w=-2
//! .....
//! .....
//! ..#..
//! .....
//! .....
//!
//! z=-2, w=-1
//! .....
//! .....
//! .....
//! .....
//! .....
//!
//! z=-1, w=-1
//! .....
//! .....
//! .....
//! .....
//! .....
//!
//! z=0, w=-1
//! .....
//! .....
//! .....
//! .....
//! .....
//!
//! z=1, w=-1
//! .....
//! .....
//! .....
//! .....
//! .....
//!
//! z=2, w=-1
//! .....
//! .....
//! .....
//! .....
//! .....
//!
//! z=-2, w=0
//! ###..
//! ##.##
//! #...#
//! .#..#
//! .###.
//!
//! z=-1, w=0
//! .....
//! .....
//! .....
//! .....
//! .....
//!
//! z=0, w=0
//! .....
//! .....
//! .....
//! .....
//! .....
//!
//! z=1, w=0
//! .....
//! .....
//! .....
//! .....
//! .....
//!
//! z=2, w=0
//! ###..
//! ##.##
//! #...#
//! .#..#
//! .###.
//!
//! z=-2, w=1
//! .....
//! .....
//! .....
//! .....
//! .....
//!
//! z=-1, w=1
//! .....
//! .....
//! .....
//! .....
//! .....
//!
//! z=0, w=1
//! .....
//! .....
//! .....
//! .....
//! .....
//!
//! z=1, w=1
//! .....
//! .....
//! .....
//! .....
//! .....
//!
//! z=2, w=1
//! .....
//! .....
//! .....
//! .....
//! .....
//!
//! z=-2, w=2
//! .....
//! .....
//! ..#..
//! .....
//! .....
//!
//! z=-1, w=2
//! .....
//! .....
//! .....
//! .....
//! .....
//!
//! z=0, w=2
//! ###..
//! ##.##
//! #...#
//! .#..#
//! .###.
//!
//! z=1, w=2
//! .....
//! .....
//! .....
//! .....
//! .....
//!
//! z=2, w=2
//! .....
//! .....
//! ..#..
//! .....
//! .....
//! After the full six-cycle boot process completes, 848 cubes are left in the active state.
//!
//! Starting with your given initial configuration, simulate six cycles in a 4-dimensional space. How many cubes are left in the active state after the sixth cycle?
use std::fmt;
use aoc_runner_derive::{aoc, aoc_generator};
#[repr(u8)]
#[derive(Copy, Clone, PartialEq)]
enum Cube {
Active = b'#',
Inactive = b'.',
}
impl fmt::Debug for Cube {
fn fmt(&self, f: &mut fmt::Formatter<'_>) -> fmt::Result {
write!(
f,
"{}",
match self {
Cube::Active => '#',
Cube::Inactive => '.',
}
)
}
}
#[derive(Default, Clone)]
struct Universe<T> {
cells: Vec<T>,
x_len: usize,
y_len: usize,
z_len: usize,
w_len: usize,
default: T,
}
impl<T> Universe<T> {
fn dimensions(&self) -> String {
let u = &self;
format!("{}x{}x{}x{}", u.x_len, u.y_len, u.z_len, u.w_len)
}
}
impl<T> fmt::Debug for Universe<T>
where
T: fmt::Debug,
{
fn fmt(&self, f: &mut fmt::Formatter<'_>) -> fmt::Result {
write!(f, "{}\n", self.dimensions())?;
let u = &self;
for w in 0..u.w_len {
for z in 0..u.z_len {
let hdr = format!(
"z={}, w={}",
z as isize - u.z_len as isize / 2,
w as isize - u.w_len as isize / 2
);
write!(f, "{:width$} | ", hdr, width = u.x_len)?;
}
write!(f, "\n")?;
for y in 0..u.y_len {
for z in 0..u.z_len {
for x in 0..u.x_len {
write!(f, "{:?}", u[(x, y, z, w)])?;
}
write!(f, " | ")?;
}
write!(f, "\n")?;
}
write!(f, "\n")?;
}
write!(f, "\n")?;
Ok(())
}
}
use std::ops::{Index, IndexMut};
impl<T> IndexMut<(usize, usize, usize, usize)> for Universe<T> {
fn index_mut(&mut self, (x, y, z, w): (usize, usize, usize, usize)) -> &mut Self::Output {
if x >= self.x_len || y >= self.y_len || z > self.z_len || w > self.w_len {
panic!(format!(
"index_mut outside of bounds ({},{},{},{})",
x, y, z, w
));
}
&mut self.cells[x
+ y * self.y_len
+ z * self.x_len * self.y_len
+ w * self.x_len * self.y_len * self.z_len]
}
}
impl<T> Index<(usize, usize, usize, usize)> for Universe<T> {
type Output = T;
/// Returns the value in 4-space given by x,y,z,w. Values outside the active space this Universe covers will return the default for T;
fn index(&self, (x, y, z, w): (usize, usize, usize, usize)) -> &Self::Output {
if x >= self.x_len || y >= self.y_len || z > self.z_len || w > self.w_len {
return &self.default;
}
&self.cells[x
+ y * self.y_len
+ z * self.x_len * self.y_len
+ w * self.x_len * self.y_len * self.z_len]
}
}
impl<T> Index<(isize, isize, isize, isize)> for Universe<T> {
type Output = T;
/// Returns the value in 4-space given by x,y,z,w. Values outside the active space this Universe covers will return self.default;
fn index(&self, (x, y, z, w): (isize, isize, isize, isize)) -> &Self::Output {
if x < 0 || y < 0 || z < 0 || w < 0 {
return &self.default;
}
let x_len = self.x_len as isize;
let y_len = self.y_len as isize;
let z_len = self.z_len as isize;
let w_len = self.w_len as isize;
if x >= x_len || y >= y_len || z >= z_len || w >= w_len {
return &self.default;
}
&self.cells[(x + y * y_len + z * x_len * y_len + w * x_len * y_len * z_len) as usize]
}
}
#[derive(Clone)]
struct PocketDimension {
universe: Universe<Cube>,
}
impl std::str::FromStr for PocketDimension {
type Err = ();
fn from_str(s: &str) -> Result<PocketDimension, ()> {
let mut cells = Vec::new();
let z_layers: Vec<_> = s.split("\n\n").collect();
let z_len = z_layers.len();
let mut x_len = 0;
let mut y_len = 0;
z_layers.iter().for_each(|layer| {
let rows: Vec<_> = layer.split('\n').map(|s| s.trim()).collect();
y_len = rows.len();
rows.iter().for_each(|row| {
x_len = row.len();
// TODO(wathiede): Is there something better here given we're using an enum with a
// repr(u8)?
cells.extend(row.bytes().filter(|c| c != &b'\n').map(|c| match c {
b'#' => Cube::Active,
b'.' => Cube::Inactive,
c => panic!(format!("Unknown state '{}'", c)),
}));
});
});
let universe = Universe {
cells,
x_len,
y_len,
z_len,
w_len: 1,
default: Cube::Inactive,
};
Ok(PocketDimension { universe })
}
}
impl fmt::Debug for PocketDimension {
fn fmt(&self, f: &mut fmt::Formatter<'_>) -> fmt::Result {
write!(f, "{:?}", self.universe)
}
}
impl PocketDimension {
/// Applies the rules of the puzzle one iteration and returns a new PocketDimension
/// representing the new state.
fn step(&self, expand_w: bool) -> PocketDimension {
let u = &self.universe;
let x_len = u.x_len as isize;
let y_len = u.y_len as isize;
let z_len = u.z_len as isize;
let w_len = u.w_len as isize;
let (new_w_len, w_range, w_off) = if expand_w {
(u.w_len + 2, -1..w_len + 1, 1)
} else {
(u.w_len, 0..w_len, 0)
};
let mut counts = Universe::<usize> {
x_len: u.x_len + 2,
y_len: u.y_len + 2,
z_len: u.z_len + 2,
w_len: new_w_len,
cells: vec![0; (u.x_len + 2) * (u.y_len + 2) * (u.z_len + 2) * (new_w_len)],
default: 0,
};
let mut universe = Universe::<Cube> {
x_len: u.x_len + 2,
y_len: u.y_len + 2,
z_len: u.z_len + 2,
w_len: new_w_len,
cells: vec![
Cube::Inactive;
(u.x_len + 2) * (u.y_len + 2) * (u.z_len + 2) * (new_w_len)
],
default: Cube::Inactive,
};
for w in w_range {
for z in -1..z_len + 1 {
for y in -1..y_len + 1 {
for x in -1..x_len + 1 {
let adj = self.adjacency((x, y, z, w));
let dst = (
(x + 1) as usize,
(y + 1) as usize,
(z + 1) as usize,
(w + w_off) as usize,
);
counts[dst] = adj;
match self.universe[(x, y, z, w)] {
Cube::Active => {
if adj == 2 || adj == 3 {
universe[dst] = Cube::Active;
} else {
universe[dst] = Cube::Inactive;
}
}
Cube::Inactive => {
if adj == 3 {
universe[dst] = Cube::Active;
}
}
};
}
}
}
}
//dbg!(&counts, &universe);
PocketDimension { universe }
}
fn active(&self) -> usize {
self.universe
.cells
.iter()
.filter(|c| c == &&Cube::Active)
.count()
}
/// Counts active neighbors.
fn adjacency(&self, (x, y, z, w): (isize, isize, isize, isize)) -> usize {
let mut sum = 0;
for w_off in -1..=1 {
for z_off in -1..=1 {
for y_off in -1..=1 {
for x_off in -1..=1 {
if x_off == 0 && y_off == 0 && z_off == 0 && w_off == 0 {
// Skip the requested cell
continue;
}
if self.universe[(x + x_off, y + y_off, z + z_off, w + w_off)]
== Cube::Active
{
sum += 1;
}
}
}
}
}
sum
}
}
#[aoc_generator(day17)]
fn generator(input: &str) -> PocketDimension {
input.parse().expect("Couldn't parse initial state")
}
#[aoc(day17, part1)]
fn solution1(pd: &PocketDimension) -> usize {
(0..6).fold(pd.clone(), |acc, _| acc.step(false)).active()
}
#[aoc(day17, part2)]
fn solution2(pd: &PocketDimension) -> usize {
(0..6).fold(pd.clone(), |acc, _| acc.step(true)).active()
}
#[cfg(test)]
mod tests {
use super::*;
const INPUT1: &'static str = r#".#.
..#
###"#;
const STEPS1: &'static str = r#".#.
..#
###
#..
..#
.#.
#.#
.##
.#.
#..
..#
.#.
.....
.....
..#..
.....
.....
..#..
.#..#
....#
.#...
.....
##...
##...
#....
....#
.###.
..#..
.#..#
....#
.#...
.....
.....
.....
..#..
.....
.....
.......
.......
..##...
..###..
.......
.......
.......
..#....
...#...
#......
.....##
.#...#.
..#.#..
...#...
...#...
.......
#......
.......
.....##
.##.#..
...#...
..#....
...#...
#......
.....##
.#...#.
..#.#..
...#...
.......
.......
..##...
..###..
.......
.......
......."#;
#[test]
fn parse_and_count() {
for (idx, ((input, active), dimensions)) in STEPS1
.split("\n\n\n")
.zip(vec![5, 11, 21, 38])
.zip(vec!["3x3x1x1", "3x3x3x1", "5x5x5x1", "7x7x5x1"])
.enumerate()
{
let pd = generator(input);
assert_eq!(pd.active(), active);
assert_eq!(
pd.universe.dimensions(),
dimensions,
"idx {}: {:?}",
idx,
pd,
);
}
}
#[test]
fn part1() {
assert_eq!(solution1(&generator(INPUT1)), 112);
}
#[test]
fn step_exand_w() {
let pd = generator(INPUT1);
assert_eq!(pd.active(), 5);
let pd = pd.step(true);
assert_eq!(pd.active(), 29);
let pd = pd.step(true);
assert_eq!(pd.active(), 60);
}
#[test]
fn part2() {
assert_eq!(solution2(&generator(INPUT1)), 848);
}
}

1040
2020/src/day18.rs Normal file

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//! --- Day 19: Monster Messages ---
//! You land in an airport surrounded by dense forest. As you walk to your high-speed train, the Elves at the Mythical Information Bureau contact you again. They think their satellite has collected an image of a sea monster! Unfortunately, the connection to the satellite is having problems, and many of the messages sent back from the satellite have been corrupted.
//!
//! They sent you a list of the rules valid messages should obey and a list of received messages they've collected so far (your puzzle input).
//!
//! The rules for valid messages (the top part of your puzzle input) are numbered and build upon each other. For example:
//!
//! 0: 1 2
//! 1: "a"
//! 2: 1 3 | 3 1
//! 3: "b"
//! Some rules, like 3: "b", simply match a single character (in this case, b).
//!
//! The remaining rules list the sub-rules that must be followed; for example, the rule 0: 1 2 means that to match rule 0, the text being checked must match rule 1, and the text after the part that matched rule 1 must then match rule 2.
//!
//! Some of the rules have multiple lists of sub-rules separated by a pipe (|). This means that at least one list of sub-rules must match. (The ones that match might be different each time the rule is encountered.) For example, the rule 2: 1 3 | 3 1 means that to match rule 2, the text being checked must match rule 1 followed by rule 3 or it must match rule 3 followed by rule 1.
//!
//! Fortunately, there are no loops in the rules, so the list of possible matches will be finite. Since rule 1 matches a and rule 3 matches b, rule 2 matches either ab or ba. Therefore, rule 0 matches aab or aba.
//!
//! Here's a more interesting example:
//!
//! 0: 4 1 5
//! 1: 2 3 | 3 2
//! 2: 4 4 | 5 5
//! 3: 4 5 | 5 4
//! 4: "a"
//! 5: "b"
//! Here, because rule 4 matches a and rule 5 matches b, rule 2 matches two letters that are the same (aa or bb), and rule 3 matches two letters that are different (ab or ba).
//!
//! Since rule 1 matches rules 2 and 3 once each in either order, it must match two pairs of letters, one pair with matching letters and one pair with different letters. This leaves eight possibilities: aaab, aaba, bbab, bbba, abaa, abbb, baaa, or babb.
//!
//! Rule 0, therefore, matches a (rule 4), then any of the eight options from rule 1, then b (rule 5): aaaabb, aaabab, abbabb, abbbab, aabaab, aabbbb, abaaab, or ababbb.
//!
//! The received messages (the bottom part of your puzzle input) need to be checked against the rules so you can determine which are valid and which are corrupted. Including the rules and the messages together, this might look like:
//!
//! 0: 4 1 5
//! 1: 2 3 | 3 2
//! 2: 4 4 | 5 5
//! 3: 4 5 | 5 4
//! 4: "a"
//! 5: "b"
//!
//! ababbb
//! bababa
//! abbbab
//! aaabbb
//! aaaabbb
//! Your goal is to determine the number of messages that completely match rule 0. In the above example, ababbb and abbbab match, but bababa, aaabbb, and aaaabbb do not, producing the answer 2. The whole message must match all of rule 0; there can't be extra unmatched characters in the message. (For example, aaaabbb might appear to match rule 0 above, but it has an extra unmatched b on the end.)
//!
//! How many messages completely match rule 0?
//!
//! --- Part Two ---
//! As you look over the list of messages, you realize your matching rules aren't quite right. To fix them, completely replace rules 8: 42 and 11: 42 31 with the following:
//!
//! 8: 42 | 42 8
//! 11: 42 31 | 42 11 31
//! This small change has a big impact: now, the rules do contain loops, and the list of messages they could hypothetically match is infinite. You'll need to determine how these changes affect which messages are valid.
//!
//! Fortunately, many of the rules are unaffected by this change; it might help to start by looking at which rules always match the same set of values and how those rules (especially rules 42 and 31) are used by the new versions of rules 8 and 11.
//!
//! (Remember, you only need to handle the rules you have; building a solution that could handle any hypothetical combination of rules would be significantly more difficult.)
//!
//! For example:
//!
//! 42: 9 14 | 10 1
//! 9: 14 27 | 1 26
//! 10: 23 14 | 28 1
//! 1: "a"
//! 11: 42 31
//! 5: 1 14 | 15 1
//! 19: 14 1 | 14 14
//! 12: 24 14 | 19 1
//! 16: 15 1 | 14 14
//! 31: 14 17 | 1 13
//! 6: 14 14 | 1 14
//! 2: 1 24 | 14 4
//! 0: 8 11
//! 13: 14 3 | 1 12
//! 15: 1 | 14
//! 17: 14 2 | 1 7
//! 23: 25 1 | 22 14
//! 28: 16 1
//! 4: 1 1
//! 20: 14 14 | 1 15
//! 3: 5 14 | 16 1
//! 27: 1 6 | 14 18
//! 14: "b"
//! 21: 14 1 | 1 14
//! 25: 1 1 | 1 14
//! 22: 14 14
//! 8: 42
//! 26: 14 22 | 1 20
//! 18: 15 15
//! 7: 14 5 | 1 21
//! 24: 14 1
//!
//! abbbbbabbbaaaababbaabbbbabababbbabbbbbbabaaaa
//! bbabbbbaabaabba
//! babbbbaabbbbbabbbbbbaabaaabaaa
//! aaabbbbbbaaaabaababaabababbabaaabbababababaaa
//! bbbbbbbaaaabbbbaaabbabaaa
//! bbbababbbbaaaaaaaabbababaaababaabab
//! ababaaaaaabaaab
//! ababaaaaabbbaba
//! baabbaaaabbaaaababbaababb
//! abbbbabbbbaaaababbbbbbaaaababb
//! aaaaabbaabaaaaababaa
//! aaaabbaaaabbaaa
//! aaaabbaabbaaaaaaabbbabbbaaabbaabaaa
//! babaaabbbaaabaababbaabababaaab
//! aabbbbbaabbbaaaaaabbbbbababaaaaabbaaabba
//! Without updating rules 8 and 11, these rules only match three messages: bbabbbbaabaabba, ababaaaaaabaaab, and ababaaaaabbbaba.
//!
//! However, after updating rules 8 and 11, a total of 12 messages match:
//!
//! bbabbbbaabaabba
//! babbbbaabbbbbabbbbbbaabaaabaaa
//! aaabbbbbbaaaabaababaabababbabaaabbababababaaa
//! bbbbbbbaaaabbbbaaabbabaaa
//! bbbababbbbaaaaaaaabbababaaababaabab
//! ababaaaaaabaaab
//! ababaaaaabbbaba
//! baabbaaaabbaaaababbaababb
//! abbbbabbbbaaaababbbbbbaaaababb
//! aaaaabbaabaaaaababaa
//! aaaabbaabbaaaaaaabbbabbbaaabbaabaaa
//! aabbbbbaabbbaaaaaabbbbbababaaaaabbaaabba
//! After updating rules 8 and 11, how many messages completely match rule 0?
use std::collections::HashMap;
use std::fmt;
use aoc_runner_derive::{aoc, aoc_generator};
use regex::Regex;
#[derive(Debug)]
struct Input {
rules: Regex,
messages: Vec<String>,
}
impl PartialEq for Input {
fn eq(&self, other: &Self) -> bool {
self.rules.as_str() == other.rules.as_str() && self.messages == other.messages
}
}
#[derive(Clone, Eq, PartialEq, Hash)]
enum Entry {
Rule(usize),
Char(String),
}
impl fmt::Debug for Entry {
fn fmt(&self, f: &mut fmt::Formatter<'_>) -> fmt::Result {
match self {
Entry::Rule(n) => write!(f, "Entry({})", n)?,
Entry::Char(c) => write!(f, r#"Entry("{}")"#, c)?,
}
Ok(())
}
}
struct Resolver {
rule_map: HashMap<usize, Vec<Vec<Entry>>>,
resolved: HashMap<Entry, String>,
}
impl Resolver {
fn resolve(&mut self, e: &Entry) -> String {
assert_ne!(e, &Entry::Rule(0));
if let Some(v) = self.resolved.get(e) {
return v.to_string();
}
match e {
Entry::Char(s) => {
self.resolved.insert(e.clone(), s.to_string());
s.to_string()
}
Entry::Rule(n) => {
let subrules: Vec<String> = self.rule_map[n]
// TODO(wathiede): clone here seems inefficient, but it made the borrow checker
// happy given the &mut recursive call to self.resolve in the map closure.
.clone()
.iter()
.map(|rule| {
rule.iter()
.map(|e| self.resolve(e))
.collect::<Vec<_>>()
.join("")
})
.collect();
let s = subrules.join("|");
if subrules.len() > 1 {
// More than one rule,
return format!("({})", s);
}
s
}
}
}
}
fn expand_rulemap(rule_map: HashMap<usize, Vec<Vec<Entry>>>) -> Regex {
// Hack
let part2 = rule_map.len() > 8 && rule_map[&8].len() > 1;
let mut r = Resolver {
rule_map,
resolved: HashMap::new(),
};
let re = if part2 {
let hack = (1..10_usize)
.map(|i| {
format!(
"{}{}",
r.resolve(&Entry::Rule(42)).repeat(i),
r.resolve(&Entry::Rule(31)).repeat(i)
)
})
.collect::<Vec<_>>()
.join("|");
format!("({})+({})", r.resolve(&Entry::Rule(42)), hack)
} else {
let rule_zero = r.rule_map[&0][0].clone();
rule_zero
.iter()
.fold("".to_string(), |acc, e| format!("{}{}", acc, r.resolve(e)))
};
Regex::new(&format!(r"^{}$", re)).unwrap()
}
fn make_rules(lines: Vec<String>) -> Regex {
let mut rules = HashMap::new();
lines.iter().for_each(|l| {
let idx = l.find(':').expect("missing ':'");
let k: usize = l[..idx].parse().expect("failed to parse number");
let sub: Vec<Vec<Entry>> = l[idx + 2..]
.split(" | ")
.map(|sub| {
sub.split(' ')
.map(|p| match p.parse() {
Ok(n) => Entry::Rule(n),
Err(_) => Entry::Char(p[1..p.len() - 1].to_string()),
})
.collect()
})
.collect();
rules.insert(k, sub);
});
expand_rulemap(rules)
}
#[aoc_generator(day19, part1)]
fn generator_part1(input: &str) -> Input {
let mut it = input.split("\n\n");
let rules = make_rules(
it.next()
.unwrap()
.split('\n')
.map(|s| s.trim().to_string())
.collect(),
);
let messages = it
.next()
.unwrap()
.split('\n')
.map(|s| s.trim().to_string())
.collect();
Input { rules, messages }
}
#[aoc(day19, part1)]
fn solution1(input: &Input) -> usize {
input
.messages
.iter()
.filter(|msg| input.rules.is_match(msg))
.count()
}
#[aoc_generator(day19, part2)]
fn generator_part2(input: &str) -> Input {
let mut it = input.split("\n\n");
let rules = make_rules(
it.next()
.unwrap()
.split('\n')
.map(|s| s.trim())
.map(|s| {
if s.starts_with("8:") {
return "8: 42 | 42 8";
}
if s.starts_with("11:") {
return "11: 42 31 | 42 11 31";
}
s
})
.map(|s| s.to_string())
.collect(),
);
let messages = it
.next()
.unwrap()
.split('\n')
.map(|s| s.trim().to_string())
.collect();
Input { rules, messages }
}
#[aoc(day19, part2)]
fn solution2(input: &Input) -> usize {
input
.messages
.iter()
.filter(|msg| input.rules.is_match(msg))
.count()
}
#[cfg(test)]
mod tests {
use pretty_assertions::assert_eq;
use super::*;
const INPUT1: &'static str = r#"0: 4 1 5
1: 2 3 | 3 2
2: 4 4 | 5 5
3: 4 5 | 5 4
4: "a"
5: "b"
ababbb
bababa
abbbab
aaabbb
aaaabbb"#;
#[test]
fn part1() {
assert_eq!(solution1(&generator_part1(INPUT1)), 2);
}
#[test]
fn parse1() {
assert_eq!(
generator_part1(INPUT1),
Input {
rules: Regex::new("^a((aa|bb)(ab|ba)|(ab|ba)(aa|bb))b$").unwrap(),
messages: vec!["ababbb", "bababa", "abbbab", "aaabbb", "aaaabbb",]
.into_iter()
.map(|s| s.to_string())
.collect(),
}
);
}
#[test]
fn expand() {
use Entry::*;
let r: HashMap<usize, Vec<Vec<Entry>>> = vec![
vec![vec![Rule(1)]],
vec![vec![Rule(2), Rule(2)], vec![Rule(3), Rule(3)]],
vec![vec![Char("a".to_string())]],
vec![vec![Char("b".to_string())]],
]
.into_iter()
.enumerate()
.collect();
assert_eq!(
expand_rulemap(r).as_str(),
Regex::new("^(aa|bb)$").unwrap().as_str()
);
}
const INPUT2: &'static str = r#"42: 9 14 | 10 1
9: 14 27 | 1 26
10: 23 14 | 28 1
1: "a"
11: 42 31
5: 1 14 | 15 1
19: 14 1 | 14 14
12: 24 14 | 19 1
16: 15 1 | 14 14
31: 14 17 | 1 13
6: 14 14 | 1 14
2: 1 24 | 14 4
0: 8 11
13: 14 3 | 1 12
15: 1 | 14
17: 14 2 | 1 7
23: 25 1 | 22 14
28: 16 1
4: 1 1
20: 14 14 | 1 15
3: 5 14 | 16 1
27: 1 6 | 14 18
14: "b"
21: 14 1 | 1 14
25: 1 1 | 1 14
22: 14 14
8: 42
26: 14 22 | 1 20
18: 15 15
7: 14 5 | 1 21
24: 14 1
abbbbbabbbaaaababbaabbbbabababbbabbbbbbabaaaa
bbabbbbaabaabba
babbbbaabbbbbabbbbbbaabaaabaaa
aaabbbbbbaaaabaababaabababbabaaabbababababaaa
bbbbbbbaaaabbbbaaabbabaaa
bbbababbbbaaaaaaaabbababaaababaabab
ababaaaaaabaaab
ababaaaaabbbaba
baabbaaaabbaaaababbaababb
abbbbabbbbaaaababbbbbbaaaababb
aaaaabbaabaaaaababaa
aaaabbaaaabbaaa
aaaabbaabbaaaaaaabbbabbbaaabbaabaaa
babaaabbbaaabaababbaabababaaab
aabbbbbaabbbaaaaaabbbbbababaaaaabbaaabba"#;
#[test]
fn part2_matches() {
let input = generator_part2(INPUT2);
assert_eq!(
input
.messages
.iter()
.filter(|msg| input.rules.is_match(msg))
.collect::<Vec<_>>(),
vec![
"bbabbbbaabaabba",
"babbbbaabbbbbabbbbbbaabaaabaaa",
"aaabbbbbbaaaabaababaabababbabaaabbababababaaa",
"bbbbbbbaaaabbbbaaabbabaaa",
"bbbababbbbaaaaaaaabbababaaababaabab",
"ababaaaaaabaaab",
"ababaaaaabbbaba",
"baabbaaaabbaaaababbaababb",
"abbbbabbbbaaaababbbbbbaaaababb",
"aaaaabbaabaaaaababaa",
"aaaabbaabbaaaaaaabbbabbbaaabbaabaaa",
"aabbbbbaabbbaaaaaabbbbbababaaaaabbaaabba",
]
);
}
#[test]
fn part2() {
assert_eq!(solution2(&generator_part2(INPUT2)), 12);
}
}

987
2020/src/day20.rs Normal file
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//! --- Day 20: Jurassic Jigsaw ---
//! The high-speed train leaves the forest and quickly carries you south. You can even see a desert in the distance! Since you have some spare time, you might as well see if there was anything interesting in the image the Mythical Information Bureau satellite captured.
//!
//! After decoding the satellite messages, you discover that the data actually contains many small images created by the satellite's camera array. The camera array consists of many cameras; rather than produce a single square image, they produce many smaller square image tiles that need to be reassembled back into a single image.
//!
//! Each camera in the camera array returns a single monochrome image tile with a random unique ID number. The tiles (your puzzle input) arrived in a random order.
//!
//! Worse yet, the camera array appears to be malfunctioning: each image tile has been rotated and flipped to a random orientation. Your first task is to reassemble the original image by orienting the tiles so they fit together.
//!
//! To show how the tiles should be reassembled, each tile's image data includes a border that should line up exactly with its adjacent tiles. All tiles have this border, and the border lines up exactly when the tiles are both oriented correctly. Tiles at the edge of the image also have this border, but the outermost edges won't line up with any other tiles.
//!
//! For example, suppose you have the following nine tiles:
//!
//! Tile 2311:
//! ..##.#..#.
//! ##..#.....
//! #...##..#.
//! ####.#...#
//! ##.##.###.
//! ##...#.###
//! .#.#.#..##
//! ..#....#..
//! ###...#.#.
//! ..###..###
//!
//! Tile 1951:
//! #.##...##.
//! #.####...#
//! .....#..##
//! #...######
//! .##.#....#
//! .###.#####
//! ###.##.##.
//! .###....#.
//! ..#.#..#.#
//! #...##.#..
//!
//! Tile 1171:
//! ####...##.
//! #..##.#..#
//! ##.#..#.#.
//! .###.####.
//! ..###.####
//! .##....##.
//! .#...####.
//! #.##.####.
//! ####..#...
//! .....##...
//!
//! Tile 1427:
//! ###.##.#..
//! .#..#.##..
//! .#.##.#..#
//! #.#.#.##.#
//! ....#...##
//! ...##..##.
//! ...#.#####
//! .#.####.#.
//! ..#..###.#
//! ..##.#..#.
//!
//! Tile 1489:
//! ##.#.#....
//! ..##...#..
//! .##..##...
//! ..#...#...
//! #####...#.
//! #..#.#.#.#
//! ...#.#.#..
//! ##.#...##.
//! ..##.##.##
//! ###.##.#..
//!
//! Tile 2473:
//! #....####.
//! #..#.##...
//! #.##..#...
//! ######.#.#
//! .#...#.#.#
//! .#########
//! .###.#..#.
//! ########.#
//! ##...##.#.
//! ..###.#.#.
//!
//! Tile 2971:
//! ..#.#....#
//! #...###...
//! #.#.###...
//! ##.##..#..
//! .#####..##
//! .#..####.#
//! #..#.#..#.
//! ..####.###
//! ..#.#.###.
//! ...#.#.#.#
//!
//! Tile 2729:
//! ...#.#.#.#
//! ####.#....
//! ..#.#.....
//! ....#..#.#
//! .##..##.#.
//! .#.####...
//! ####.#.#..
//! ##.####...
//! ##..#.##..
//! #.##...##.
//!
//! Tile 3079:
//! #.#.#####.
//! .#..######
//! ..#.......
//! ######....
//! ####.#..#.
//! .#...#.##.
//! #.#####.##
//! ..#.###...
//! ..#.......
//! ..#.###...
//! By rotating, flipping, and rearranging them, you can find a square arrangement that causes all adjacent borders to line up:
//!
//! #...##.#.. ..###..### #.#.#####.
//! ..#.#..#.# ###...#.#. .#..######
//! .###....#. ..#....#.. ..#.......
//! ###.##.##. .#.#.#..## ######....
//! .###.##### ##...#.### ####.#..#.
//! .##.#....# ##.##.###. .#...#.##.
//! #...###### ####.#...# #.#####.##
//! .....#..## #...##..#. ..#.###...
//! #.####...# ##..#..... ..#.......
//! #.##...##. ..##.#..#. ..#.###...
//!
//! #.##...##. ..##.#..#. ..#.###...
//! ##..#.##.. ..#..###.# ##.##....#
//! ##.####... .#.####.#. ..#.###..#
//! ####.#.#.. ...#.##### ###.#..###
//! .#.####... ...##..##. .######.##
//! .##..##.#. ....#...## #.#.#.#...
//! ....#..#.# #.#.#.##.# #.###.###.
//! ..#.#..... .#.##.#..# #.###.##..
//! ####.#.... .#..#.##.. .######...
//! ...#.#.#.# ###.##.#.. .##...####
//!
//! ...#.#.#.# ###.##.#.. .##...####
//! ..#.#.###. ..##.##.## #..#.##..#
//! ..####.### ##.#...##. .#.#..#.##
//! #..#.#..#. ...#.#.#.. .####.###.
//! .#..####.# #..#.#.#.# ####.###..
//! .#####..## #####...#. .##....##.
//! ##.##..#.. ..#...#... .####...#.
//! #.#.###... .##..##... .####.##.#
//! #...###... ..##...#.. ...#..####
//! ..#.#....# ##.#.#.... ...##.....
//! For reference, the IDs of the above tiles are:
//!
//! 1951 2311 3079
//! 2729 1427 2473
//! 2971 1489 1171
//! To check that you've assembled the image correctly, multiply the IDs of the four corner tiles together. If you do this with the assembled tiles from the example above, you get 1951 * 3079 * 2971 * 1171 = 20899048083289.
//!
//! Assemble the tiles into an image. What do you get if you multiply together the IDs of the four corner tiles?
//!
//! --- Part Two ---
//! Now, you're ready to check the image for sea monsters.
//!
//! The borders of each tile are not part of the actual image; start by removing them.
//!
//! In the example above, the tiles become:
//!
//! .#.#..#. ##...#.# #..#####
//! ###....# .#....#. .#......
//! ##.##.## #.#.#..# #####...
//! ###.#### #...#.## ###.#..#
//! ##.#.... #.##.### #...#.##
//! ...##### ###.#... .#####.#
//! ....#..# ...##..# .#.###..
//! .####... #..#.... .#......
//!
//! #..#.##. .#..###. #.##....
//! #.####.. #.####.# .#.###..
//! ###.#.#. ..#.#### ##.#..##
//! #.####.. ..##..## ######.#
//! ##..##.# ...#...# .#.#.#..
//! ...#..#. .#.#.##. .###.###
//! .#.#.... #.##.#.. .###.##.
//! ###.#... #..#.##. ######..
//!
//! .#.#.### .##.##.# ..#.##..
//! .####.## #.#...## #.#..#.#
//! ..#.#..# ..#.#.#. ####.###
//! #..####. ..#.#.#. ###.###.
//! #####..# ####...# ##....##
//! #.##..#. .#...#.. ####...#
//! .#.###.. ##..##.. ####.##.
//! ...###.. .##...#. ..#..###
//! Remove the gaps to form the actual image:
//!
//! .#.#..#.##...#.##..#####
//! ###....#.#....#..#......
//! ##.##.###.#.#..######...
//! ###.#####...#.#####.#..#
//! ##.#....#.##.####...#.##
//! ...########.#....#####.#
//! ....#..#...##..#.#.###..
//! .####...#..#.....#......
//! #..#.##..#..###.#.##....
//! #.####..#.####.#.#.###..
//! ###.#.#...#.######.#..##
//! #.####....##..########.#
//! ##..##.#...#...#.#.#.#..
//! ...#..#..#.#.##..###.###
//! .#.#....#.##.#...###.##.
//! ###.#...#..#.##.######..
//! .#.#.###.##.##.#..#.##..
//! .####.###.#...###.#..#.#
//! ..#.#..#..#.#.#.####.###
//! #..####...#.#.#.###.###.
//! #####..#####...###....##
//! #.##..#..#...#..####...#
//! .#.###..##..##..####.##.
//! ...###...##...#...#..###
//! Now, you're ready to search for sea monsters! Because your image is monochrome, a sea monster will look like this:
//!
//! #
//! # ## ## ###
//! # # # # # #
//! When looking for this pattern in the image, the spaces can be anything; only the # need to match. Also, you might need to rotate or flip your image before it's oriented correctly to find sea monsters. In the above image, after flipping and rotating it to the appropriate orientation, there are two sea monsters (marked with O):
//!
//! .####...#####..#...###..
//! #####..#..#.#.####..#.#.
//! .#.#...#.###...#.##.O#..
//! #.O.##.OO#.#.OO.##.OOO##
//! ..#O.#O#.O##O..O.#O##.##
//! ...#.#..##.##...#..#..##
//! #.##.#..#.#..#..##.#.#..
//! .###.##.....#...###.#...
//! #.####.#.#....##.#..#.#.
//! ##...#..#....#..#...####
//! ..#.##...###..#.#####..#
//! ....#.##.#.#####....#...
//! ..##.##.###.....#.##..#.
//! #...#...###..####....##.
//! .#.##...#.##.#.#.###...#
//! #.###.#..####...##..#...
//! #.###...#.##...#.##O###.
//! .O##.#OO.###OO##..OOO##.
//! ..O#.O..O..O.#O##O##.###
//! #.#..##.########..#..##.
//! #.#####..#.#...##..#....
//! #....##..#.#########..##
//! #...#.....#..##...###.##
//! #..###....##.#...##.##.#
//! Determine how rough the waters are in the sea monsters' habitat by counting the number of # that are not part of a sea monster. In the above example, the habitat's water roughness is 273.
//!
//! How many # are not part of a sea monster?
use std::collections::{HashMap, HashSet};
use std::fmt;
use std::ops::{Index, IndexMut};
use std::str::FromStr;
use aoc_runner_derive::{aoc, aoc_generator};
use crate::debug_println;
#[derive(Clone, Default, Hash, Eq, PartialEq)]
struct Tile {
id: usize,
pixels: Vec<u8>,
width: usize,
height: usize,
}
impl fmt::Debug for Tile {
fn fmt(&self, f: &mut fmt::Formatter<'_>) -> fmt::Result {
write!(f, "Tile {} ({}x{}):\n", self.id, self.width, self.height)?;
for y in 0..self.height {
for x in 0..self.width {
write!(f, "{}", self[(x, y)] as char)?;
}
write!(f, "\n")?;
}
write!(f, "\n")
}
}
impl FromStr for Tile {
type Err = ();
fn from_str(s: &str) -> Result<Tile, ()> {
let mut it = s.split('\n');
let id = it
.next()
.expect("couldn't get first line of tile")
.trim()
.split(' ')
.skip(1)
.next()
.expect("couldn't get second word of tile header")
.strip_suffix(':')
.expect("couldn't strip ':' from tile header")
.parse()
.expect("couldn't parse tile number");
let rows: Vec<_> = it.map(|l| l.trim()).collect();
let height = rows.len();
let mut width = 0;
let mut pixels = Vec::with_capacity(height * height);
rows.iter().for_each(|row| {
width = row.len();
pixels.extend(row.bytes());
});
Ok(Tile {
id,
pixels,
height,
width,
})
}
}
impl IndexMut<(usize, usize)> for Tile {
fn index_mut(&mut self, (x, y): (usize, usize)) -> &mut Self::Output {
&mut self.pixels[x + y * self.width]
}
}
impl Index<(usize, usize)> for Tile {
type Output = u8;
fn index(&self, (x, y): (usize, usize)) -> &Self::Output {
&self.pixels[x + y * self.width]
}
}
#[cfg(any(debug_assertions, test))]
fn border_to_str(border: &[u8]) -> String {
std::str::from_utf8(border).unwrap().to_string()
}
impl Tile {
/// Copy `t` into self @ x_off,y_off.
fn blit(&mut self, t: &Tile, x_off: usize, y_off: usize) {
debug_println!(
"blitting tile {} {}x{} @ {},{}",
t.id,
t.width,
t.height,
x_off,
y_off
);
(0..t.height)
.for_each(|y| (0..t.width).for_each(|x| self[(x_off + x, y_off + y)] = t[(x, y)]));
}
/// Builds a set containing all the borders of this tile and their reverse (useful if the tile
/// is in the wrong orientation).
fn border_set(&self) -> HashSet<Vec<u8>> {
let mut set = HashSet::new();
set.insert(self.top_border());
set.insert(self.right_border());
set.insert(self.bottom_border());
set.insert(self.left_border());
let rev_set: HashSet<_> = set
.iter()
.map(|b| {
let mut b = b.clone();
b.reverse();
b
})
.collect();
set.union(&rev_set).cloned().collect()
}
fn top_border(&self) -> Vec<u8> {
(0..self.width).map(|x| self[(x, 0)]).collect()
}
fn right_border(&self) -> Vec<u8> {
(0..self.height)
.map(|y| self[(self.width - 1, y)])
.collect()
}
fn bottom_border(&self) -> Vec<u8> {
(0..self.width)
.map(|x| self[(x, self.height - 1)])
.collect()
}
fn left_border(&self) -> Vec<u8> {
(0..self.height).map(|y| self[(0, y)]).collect()
}
fn strip_border(&self) -> Tile {
let pixels = (1..self.height - 1)
.map(|y| (1..self.width - 1).map(move |x| self[(x, y)]))
.flatten()
.collect();
Tile {
id: self.id,
width: self.width - 2,
height: self.height - 2,
pixels,
}
}
fn search(&self, needle: &Tile, x_off: usize, y_off: usize) -> bool {
for n_y in 0..needle.height {
for n_x in 0..needle.width {
if needle[(n_x, n_y)] != b'#' {
continue;
}
if self[(x_off + n_x, y_off + n_y)] != b'#' {
return false;
}
}
}
true
}
fn count_hashes(&self) -> usize {
self.pixels.iter().filter(|b| *b == &b'#').count()
}
fn rotate90(&self) -> Tile {
let pixels = (0..self.height)
.map(|y| (0..self.width).map(move |x| self[(y, self.height - x - 1)]))
.flatten()
.collect();
Tile {
id: self.id,
width: self.width,
height: self.height,
pixels,
}
}
/// Slow but easy to implement.
fn rotate180(&self) -> Tile {
self.rotate90().rotate90()
}
/// Slow but easy to implement.
fn rotate270(&self) -> Tile {
self.rotate180().rotate90()
}
fn flip_horizontal(&self) -> Tile {
let pixels = (0..self.height)
.map(|y| (0..self.width).map(move |x| self[(self.width - x - 1, y)]))
.flatten()
.collect();
Tile {
id: self.id,
width: self.width,
height: self.height,
pixels,
}
}
/// Finds number of occurrences of needle in self. A match requires all '#' in needle to be
/// found in self. Extra '#' in self are ignored. The returned vector is the x,y of the upper
/// left pixel for the match.
fn find_hashes(&self, needle: &Tile) -> Vec<(usize, usize)> {
let mut res = Vec::new();
for y_off in 0..self.height - needle.height {
for x_off in 0..self.width - needle.width {
if self.search(needle, x_off, y_off) {
res.push((x_off, y_off));
}
}
}
res
}
}
/// Tries various orientations, until predicate matches.
fn reorient<F>(img: &Tile, predicate: F) -> Option<Tile>
where
F: Fn(&Tile) -> bool,
{
if predicate(&img) {
return Some(img.clone());
}
let rotated = img.rotate90();
if predicate(&rotated) {
return Some(rotated);
}
let rotated = img.rotate180();
if predicate(&rotated) {
return Some(rotated);
}
let rotated = img.rotate270();
if predicate(&rotated) {
return Some(rotated);
}
let horiz = img.flip_horizontal();
if predicate(&horiz) {
return Some(horiz);
}
let rotated = horiz.rotate90();
if predicate(&rotated) {
return Some(rotated);
}
let rotated = horiz.rotate180();
if predicate(&rotated) {
return Some(rotated);
}
let rotated = horiz.rotate270();
if predicate(&rotated) {
return Some(rotated);
}
None
}
fn stitch(tiles: &[Tile]) -> Tile {
// Make sure there's a square number of tiles.
let sqrt = (tiles.len() as f32).sqrt() as usize;
assert_eq!(sqrt * sqrt, tiles.len());
let width = sqrt * (tiles[0].width - 2);
let height = sqrt * (tiles[0].height - 2);
let mut image = Tile {
id: 0,
width,
height,
pixels: vec![b'X'; width * height],
};
let mut border_counts = HashMap::new();
let mut border_map = HashMap::new();
tiles.iter().for_each(|t| {
t.border_set().iter().for_each(|b| {
border_map.insert(b.clone(), t.id);
let c = border_counts.entry(b.clone()).or_insert(0);
*c += 1;
})
});
#[cfg(any(debug_assertions, test))]
border_counts.iter().for_each(|(b, c)| {
let _ = b;
let _ = c;
debug_println!("{}: {}", border_to_str(b), c);
});
let edge_borders: HashSet<_> = border_counts
.iter()
.filter(|(_b, c)| **c == 1)
.map(|(b, _c)| b)
.collect();
// Count the number of borders that are in edge_borders. The answer should be 0, 1 or 2
// if the tile is a middle, edge or corner, respectively.
let (corner_tiles, _edge_tiles, _center_tiles) = tiles.iter().fold(
(vec![], vec![], vec![]),
|(mut corner, mut edge, mut center), t| {
let edge_count = vec![
t.top_border(),
t.right_border(),
t.bottom_border(),
t.left_border(),
]
.into_iter()
.filter(|b| edge_borders.contains(b))
.count();
match edge_count {
0 => center.push(t),
1 => edge.push(t),
2 => corner.push(t),
c => panic!(format!("unexpected edge_count for {:?}: {}", t, c)),
};
(corner, edge, center)
},
);
let mut tile_map = vec![vec![None; sqrt]; sqrt];
let corner = corner_tiles[0];
// Make this the upper-left corner at 0,0.
let corner = reorient(corner, |im| {
edge_borders.contains(&im.left_border()) && edge_borders.contains(&im.top_border())
})
.expect("couldn't find proper orientation");
let mut remaining_tiles: HashSet<_> = tiles.iter().filter(|t| t.id != corner.id).collect();
let mut last = corner.clone();
tile_map[0][0] = Some(corner);
(0..sqrt)
.map(|y| (0..sqrt).map(move |x| (x, y)))
.flatten()
.skip(1)
.for_each(|(x, y)| {
debug_println!("Solving for tile {},{}", x, y);
let mut local_last = last.clone();
let orientation_check: Box<dyn Fn(&Tile) -> bool> = if y == 0 {
debug_println!("search for top row tiles");
// Top row, tiles should be match the tile to the left and have their top_border in the
// edge set.
// Find a tile that matches last and reorient so it's edge is on top.
Box::new(|im: &Tile| {
edge_borders.contains(&im.top_border())
&& im.left_border() == local_last.right_border()
})
} else if x == 0 {
debug_println!("search for left column tiles");
// When we're in the first column, we need to match against the tile above, instead of
// the last tile on the previous row.
local_last = tile_map[0][y - 1]
.as_ref()
.expect(&format!("couldn't file tile above {},{}", x, y))
.clone();
Box::new(|im: &Tile| {
edge_borders.contains(&im.left_border())
&& im.top_border() == local_last.bottom_border()
})
} else {
debug_println!("search for regular tiles");
// Default, last is to the left match shared edge.
Box::new(|im: &Tile| im.left_border() == local_last.right_border())
};
debug_println!("last tile {}", last.id);
let mut found: Option<Tile> = None;
for candidate in &remaining_tiles {
match reorient(candidate, &orientation_check) {
Some(good) => {
debug_println!("found3 {}", good.id);
found = Some(good);
break;
}
None => continue,
};
}
match found {
Some(rm) => {
debug_println!(
"rm3 {} {:?}",
rm.id,
remaining_tiles.iter().map(|t| t.id).collect::<Vec<_>>()
);
last = rm.clone();
tile_map[x][y] = Some(last.clone());
let rm = remaining_tiles
.iter()
.filter(|t| t.id == rm.id)
.nth(0)
.expect(&format!("Couldn't find {} in remaining_tiles", rm.id))
.clone();
remaining_tiles.remove(rm);
}
None => panic!("couldn't find match for {},{}", x, y),
};
});
debug_println!("Stitched titles");
#[cfg(debug_assertions)]
(0..sqrt).for_each(|y| {
let row_ids: Vec<_> = (0..sqrt)
.map(|x| tile_map[x][y].as_ref().unwrap().id)
.collect();
debug_println!("{:?}", row_ids);
});
(0..sqrt)
.map(|y| (0..sqrt).map(move |x| (x, y)))
.flatten()
.for_each(|(x, y)| {
let t = tile_map[x][y]
.as_ref()
.expect(&format!("missing tile {},{} in completed tile_map", x, y));
let out = t.strip_border();
image.blit(&out, x * out.width, y * out.height);
});
// TODO(wathiede) paste oriented into image.
image
}
#[aoc_generator(day20)]
fn generator(input: &str) -> Vec<Tile> {
input
.split("\n\n")
.map(|s| s.parse().expect("failed to parse tile"))
.collect()
}
fn seamonster() -> Tile {
const MONSTER: &'static str = r#"Tile 666:
..................#.
#....##....##....###
.#..#..#..#..#..#..."#;
MONSTER.parse().expect("failed to parse seamonster")
}
#[aoc(day20, part1)]
fn solution1(tiles: &[Tile]) -> usize {
let mut border_counts = HashMap::new();
tiles.iter().for_each(|t| {
t.border_set().iter().for_each(|b| {
let c = border_counts.entry(b.clone()).or_insert(0);
*c += 1;
})
});
let corner_tiles: Vec<_> = tiles
.iter()
.filter(|t| {
let matches: usize = t.border_set().iter().map(|b| border_counts[b]).sum();
matches == 12
})
.collect();
corner_tiles.iter().map(|t| t.id).product()
}
fn habitat(img: &Tile) -> usize {
let monster = seamonster();
let num_monsters = img.find_hashes(&monster).len();
img.count_hashes() - (num_monsters * monster.count_hashes())
}
fn contains_seamonster(t: &Tile) -> bool {
let monster = seamonster();
t.find_hashes(&monster).len() > 0
}
#[aoc(day20, part2)]
fn solution2(tiles: &[Tile]) -> usize {
let full_map = stitch(tiles);
debug_println!("Full map\n{:?}", full_map);
habitat(&reorient(&full_map, contains_seamonster).expect("couldn't find proper orientation"))
}
#[cfg(test)]
mod tests {
//use pretty_assertions::assert_eq;
use super::*;
const INPUT: &'static str = r#"Tile 2311:
..##.#..#.
##..#.....
#...##..#.
####.#...#
##.##.###.
##...#.###
.#.#.#..##
..#....#..
###...#.#.
..###..###
Tile 1951:
#.##...##.
#.####...#
.....#..##
#...######
.##.#....#
.###.#####
###.##.##.
.###....#.
..#.#..#.#
#...##.#..
Tile 1171:
####...##.
#..##.#..#
##.#..#.#.
.###.####.
..###.####
.##....##.
.#...####.
#.##.####.
####..#...
.....##...
Tile 1427:
###.##.#..
.#..#.##..
.#.##.#..#
#.#.#.##.#
....#...##
...##..##.
...#.#####
.#.####.#.
..#..###.#
..##.#..#.
Tile 1489:
##.#.#....
..##...#..
.##..##...
..#...#...
#####...#.
#..#.#.#.#
...#.#.#..
##.#...##.
..##.##.##
###.##.#..
Tile 2473:
#....####.
#..#.##...
#.##..#...
######.#.#
.#...#.#.#
.#########
.###.#..#.
########.#
##...##.#.
..###.#.#.
Tile 2971:
..#.#....#
#...###...
#.#.###...
##.##..#..
.#####..##
.#..####.#
#..#.#..#.
..####.###
..#.#.###.
...#.#.#.#
Tile 2729:
...#.#.#.#
####.#....
..#.#.....
....#..#.#
.##..##.#.
.#.####...
####.#.#..
##.####...
##..#.##..
#.##...##.
Tile 3079:
#.#.#####.
.#..######
..#.......
######....
####.#..#.
.#...#.##.
#.#####.##
..#.###...
..#.......
..#.###..."#;
#[test]
fn test_generator() {
assert_eq!(
generator(&INPUT).iter().map(|t| t.id).collect::<Vec<_>>(),
vec![2311, 1951, 1171, 1427, 1489, 2473, 2971, 2729, 3079,]
);
}
#[test]
fn test_solution1() {
assert_eq!(solution1(&generator(&INPUT)), 1951 * 3079 * 2971 * 1171);
}
const OUTPUT_IMAGE: &'static str = r#"Tile 0:
.#.#..#.##...#.##..#####
###....#.#....#..#......
##.##.###.#.#..######...
###.#####...#.#####.#..#
##.#....#.##.####...#.##
...########.#....#####.#
....#..#...##..#.#.###..
.####...#..#.....#......
#..#.##..#..###.#.##....
#.####..#.####.#.#.###..
###.#.#...#.######.#..##
#.####....##..########.#
##..##.#...#...#.#.#.#..
...#..#..#.#.##..###.###
.#.#....#.##.#...###.##.
###.#...#..#.##.######..
.#.#.###.##.##.#..#.##..
.####.###.#...###.#..#.#
..#.#..#..#.#.#.####.###
#..####...#.#.#.###.###.
#####..#####...###....##
#.##..#..#...#..####...#
.#.###..##..##..####.##.
...###...##...#...#..###"#;
#[test]
fn make_image() {
let _: Tile = OUTPUT_IMAGE.parse().expect("failed to part want image");
}
#[test]
fn find_monster() {
let img: Tile = OUTPUT_IMAGE.parse().expect("failed to part want image");
let monster = seamonster();
dbg!(&img);
dbg!(&monster);
assert_eq!(img.find_hashes(&monster).len(), 0);
assert_eq!(img.rotate90().find_hashes(&monster).len(), 0);
assert_eq!(img.rotate180().find_hashes(&monster).len(), 0);
assert_eq!(img.rotate270().find_hashes(&monster).len(), 0);
let horiz = img.flip_horizontal();
assert_eq!(horiz.rotate90().find_hashes(&monster).len(), 0);
assert_eq!(horiz.rotate180().find_hashes(&monster).len(), 0);
assert_eq!(horiz.rotate270().find_hashes(&monster).len(), 2);
let correct = horiz.rotate270();
dbg!(&correct);
assert_eq!(correct.find_hashes(&monster), vec![(2, 2), (1, 16),]);
}
#[test]
fn test_reorient() {
let img: Tile = OUTPUT_IMAGE.parse().expect("failed to part want image");
let monster = seamonster();
assert_eq!(
reorient(&img, contains_seamonster)
.expect("couldn't find proper orientation")
.find_hashes(&monster)
.len(),
2
);
}
const TEST_ROTATE: &'static str = "Tile 0:\n#.\n..";
#[test]
fn rotate90() {
let img: Tile = TEST_ROTATE.parse().expect("failed to part rotate image");
let want: Tile = "Tile 0:\n.#\n.."
.parse()
.expect("failed to parse rotate90 want");
assert_eq!(img.rotate90(), want);
}
#[test]
fn rotate180() {
let img: Tile = TEST_ROTATE.parse().expect("failed to part rotate image");
let want: Tile = "Tile 0:\n..\n.#"
.parse()
.expect("failed to parse rotate180 want");
assert_eq!(img.rotate180(), want);
}
#[test]
fn rotate270() {
let img: Tile = TEST_ROTATE.parse().expect("failed to part rotate image");
let want: Tile = "Tile 0:\n..\n#."
.parse()
.expect("failed to parse rotate270 want");
assert_eq!(img.rotate270(), want);
}
#[test]
fn flip_horizontal() {
let img: Tile = TEST_ROTATE.parse().expect("failed to part rotate image");
let want: Tile = "Tile 0:\n.#\n.."
.parse()
.expect("failed to parse flip_horizontal want");
assert_eq!(img.flip_horizontal(), want);
}
#[test]
fn test_habitat() {
let img: Tile = OUTPUT_IMAGE.parse().expect("failed to part want image");
dbg!(img.count_hashes());
dbg!(seamonster().count_hashes());
assert_eq!(
habitat(
&reorient(&img, contains_seamonster).expect("couldn't find proper orientation")
),
273
);
}
#[test]
fn test_stitch() {
let want: Tile = OUTPUT_IMAGE.parse().expect("can't parse stitched input");
let output = stitch(&generator(INPUT));
let output = reorient(&output, contains_seamonster);
match output {
None => assert!(false, "Failed to reorient stitched image to reference"),
Some(im) => {
dbg!(&im);
assert_eq!(
habitat(&im),
273,
"\n im {}\nwant {}",
border_to_str(&im.pixels),
border_to_str(&want.pixels)
);
}
}
}
#[test]
fn test_solution2() {
assert_eq!(solution2(&generator(&INPUT)), 273);
}
}

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//! --- Day 21: Allergen Assessment ---
//! You reach the train's last stop and the closest you can get to your vacation island without getting wet. There aren't even any boats here, but nothing can stop you now: you build a raft. You just need a few days' worth of food for your journey.
//!
//! You don't speak the local language, so you can't read any ingredients lists. However, sometimes, allergens are listed in a language you do understand. You should be able to use this information to determine which ingredient contains which allergen and work out which foods are safe to take with you on your trip.
//!
//! You start by compiling a list of foods (your puzzle input), one food per line. Each line includes that food's ingredients list followed by some or all of the allergens the food contains.
//!
//! Each allergen is found in exactly one ingredient. Each ingredient contains zero or one allergen. Allergens aren't always marked; when they're listed (as in (contains nuts, shellfish) after an ingredients list), the ingredient that contains each listed allergen will be somewhere in the corresponding ingredients list. However, even if an allergen isn't listed, the ingredient that contains that allergen could still be present: maybe they forgot to label it, or maybe it was labeled in a language you don't know.
//!
//! For example, consider the following list of foods:
//!
//! mxmxvkd kfcds sqjhc nhms (contains dairy, fish)
//! trh fvjkl sbzzf mxmxvkd (contains dairy)
//! sqjhc fvjkl (contains soy)
//! sqjhc mxmxvkd sbzzf (contains fish)
//! The first food in the list has four ingredients (written in a language you don't understand): mxmxvkd, kfcds, sqjhc, and nhms. While the food might contain other allergens, a few allergens the food definitely contains are listed afterward: dairy and fish.
//!
//! The first step is to determine which ingredients can't possibly contain any of the allergens in any food in your list. In the above example, none of the ingredients kfcds, nhms, sbzzf, or trh can contain an allergen. Counting the number of times any of these ingredients appear in any ingredients list produces 5: they all appear once each except sbzzf, which appears twice.
//!
//! Determine which ingredients cannot possibly contain any of the allergens in your list. How many times do any of those ingredients appear?
//!
//! --- Part Two ---
//! Now that you've isolated the inert ingredients, you should have enough information to figure out which ingredient contains which allergen.
//!
//! In the above example:
//!
//! mxmxvkd contains dairy.
//! sqjhc contains fish.
//! fvjkl contains soy.
//! Arrange the ingredients alphabetically by their allergen and separate them by commas to produce your canonical dangerous ingredient list. (There should not be any spaces in your canonical dangerous ingredient list.) In the above example, this would be mxmxvkd,sqjhc,fvjkl.
//!
//! Time to stock your raft with supplies. What is your canonical dangerous ingredient list?
use std::collections::{HashMap, HashSet};
use std::str::FromStr;
use aoc_runner_derive::{aoc, aoc_generator};
use crate::{debug_print, debug_println};
struct Food {
ingredients: Vec<String>,
allergens: Vec<String>,
}
impl FromStr for Food {
type Err = ();
fn from_str(s: &str) -> Result<Food, ()> {
let ingredients = s
.split(' ')
.take_while(|s| !s.starts_with('('))
.map(|s| s.to_string())
.collect();
let allergens = s
.split(' ')
.skip_while(|s| !s.starts_with('('))
.skip(1)
.map(|s| s.trim_matches(&[',', ')'][..]).to_string())
.collect();
Ok(Food {
ingredients,
allergens,
})
}
}
impl Food {}
fn count_ingredients(foods: &[Food], ingredients: &HashSet<String>) -> usize {
foods
.iter()
.map(|food| {
food.ingredients
.iter()
.filter(|i| ingredients.contains(*i))
.count()
})
.sum()
}
#[aoc_generator(day21)]
fn generator(input: &str) -> Vec<Food> {
input
.split('\n')
.map(|s| s.parse().expect("couldn't parse food"))
.collect()
}
fn find_non_allergens(foods: &[Food]) -> HashSet<String> {
// Find ingredients common across all foods for a given allergen. The remaining ingredients
// are non-allergens.
//
let mut allergen_map = HashMap::new();
let mut ingredient_map = HashMap::new();
foods.iter().for_each(|f| {
f.allergens.iter().for_each(|allergen| {
let a = allergen_map.entry(allergen).or_insert(0);
*a += 1;
f.ingredients.iter().for_each(|ingredient| {
let i = ingredient_map
.entry(ingredient)
.or_insert(HashMap::new())
.entry(allergen)
.or_insert(0);
*i += 1;
});
});
});
ingredient_map
.iter()
.filter(|(_, v)| !v.iter().any(|(a, c)| &allergen_map[a] == c))
.map(|(k, _)| k.to_string())
.collect()
}
#[aoc(day21, part1)]
fn solution1(foods: &[Food]) -> usize {
let ingredients = find_non_allergens(foods);
count_ingredients(&foods, &ingredients)
}
fn allergen_ingredients(foods: &[Food], non_allergens: &HashSet<String>) -> Vec<(String, String)> {
let mut allergen_only = HashMap::new();
foods.iter().for_each(|food| {
debug_print!("{:?}:", food.allergens);
food.ingredients.iter().for_each(|i| {
for a in &food.allergens {
let v = allergen_only
.entry(a)
.or_insert(HashMap::new())
.entry(i)
.or_insert(0);
*v += 1;
}
if !non_allergens.contains(i) {
debug_print!(" {}", i);
}
});
food.ingredients.iter().for_each(|i| {
if non_allergens.contains(i) {
debug_print!(" *{}", i);
}
});
debug_println!();
});
let mut answer = HashMap::new();
let mut limit = 0;
loop {
if allergen_only.is_empty() {
return answer.into_iter().collect();
};
let mut rm = ("".to_string(), "".to_string());
allergen_only.iter().for_each(|(a, i_counts)| {
let max = i_counts.values().max().unwrap();
if i_counts.iter().filter(|(_i, c)| c == &max).count() == 1 {
let i = i_counts
.iter()
.filter(|(_i, c)| c == &max)
.map(|(i, _c)| i)
.nth(0)
.unwrap();
answer.insert(a.to_string(), i.to_string());
rm = (a.to_string(), i.to_string());
}
});
debug_println!("removing {:?}", rm);
allergen_only.iter_mut().for_each(|(_, i_counts)| {
i_counts.remove(&rm.1);
});
allergen_only.remove(&rm.0);
limit += 1;
if limit > 10 {
panic!()
};
}
}
#[aoc(day21, part2)]
fn solution2(foods: &[Food]) -> String {
let non_allergens = find_non_allergens(foods);
let mut allergens = allergen_ingredients(foods, &non_allergens);
allergens.sort_by(|l, r| l.0.cmp(&r.0));
allergens
.iter()
.map(|(_, a)| a.as_str())
.collect::<Vec<_>>()
.as_slice()
.join(",")
}
#[cfg(test)]
mod tests {
use super::*;
const INPUT: &'static str = r#"mxmxvkd kfcds sqjhc nhms (contains dairy, fish)
trh fvjkl sbzzf mxmxvkd (contains dairy)
sqjhc fvjkl (contains soy)
sqjhc mxmxvkd sbzzf (contains fish)"#;
#[test]
fn parse() {
let foods = generator(INPUT);
assert_eq!(foods.len(), 4);
assert_eq!(
foods[0].ingredients,
["mxmxvkd", "kfcds", "sqjhc", "nhms"]
.iter()
.map(|s| s.to_string())
.collect::<Vec<_>>()
);
assert_eq!(
foods[0].allergens,
["dairy", "fish"]
.iter()
.map(|s| s.to_string())
.collect::<Vec<_>>()
);
}
#[test]
fn part1() {
assert_eq!(solution1(&generator(INPUT)), 5);
}
#[test]
fn part2() {
assert_eq!(solution2(&generator(INPUT)), "mxmxvkd,sqjhc,fvjkl");
}
#[test]
fn non_allergens() {
assert_eq!(
find_non_allergens(&generator(INPUT)),
["kfcds", "nhms", "sbzzf", "trh"]
.iter()
.map(|s| s.to_string())
.collect()
);
}
#[test]
fn count() {
let ingredients: HashSet<String> = vec!["kfcds", "nhms", "sbzzf", "trh"]
.iter()
.map(|s| s.to_string())
.collect();
let foods = generator(INPUT);
assert_eq!(count_ingredients(&foods, &ingredients), 5);
}
}

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//! --- Day 22: Crab Combat ---
//! It only takes a few hours of sailing the ocean on a raft for boredom to sink in. Fortunately, you brought a small deck of space cards! You'd like to play a game of Combat, and there's even an opponent available: a small crab that climbed aboard your raft before you left.
//!
//! Fortunately, it doesn't take long to teach the crab the rules.
//!
//! Before the game starts, split the cards so each player has their own deck (your puzzle input). Then, the game consists of a series of rounds: both players draw their top card, and the player with the higher-valued card wins the round. The winner keeps both cards, placing them on the bottom of their own deck so that the winner's card is above the other card. If this causes a player to have all of the cards, they win, and the game ends.
//!
//! For example, consider the following starting decks:
//!
//! Player 1:
//! 9
//! 2
//! 6
//! 3
//! 1
//!
//! Player 2:
//! 5
//! 8
//! 4
//! 7
//! 10
//! This arrangement means that player 1's deck contains 5 cards, with 9 on top and 1 on the bottom; player 2's deck also contains 5 cards, with 5 on top and 10 on the bottom.
//!
//! The first round begins with both players drawing the top card of their decks: 9 and 5. Player 1 has the higher card, so both cards move to the bottom of player 1's deck such that 9 is above 5. In total, it takes 29 rounds before a player has all of the cards:
//!
//! -- Round 1 --
//! Player 1's deck: 9, 2, 6, 3, 1
//! Player 2's deck: 5, 8, 4, 7, 10
//! Player 1 plays: 9
//! Player 2 plays: 5
//! Player 1 wins the round!
//!
//! -- Round 2 --
//! Player 1's deck: 2, 6, 3, 1, 9, 5
//! Player 2's deck: 8, 4, 7, 10
//! Player 1 plays: 2
//! Player 2 plays: 8
//! Player 2 wins the round!
//!
//! -- Round 3 --
//! Player 1's deck: 6, 3, 1, 9, 5
//! Player 2's deck: 4, 7, 10, 8, 2
//! Player 1 plays: 6
//! Player 2 plays: 4
//! Player 1 wins the round!
//!
//! -- Round 4 --
//! Player 1's deck: 3, 1, 9, 5, 6, 4
//! Player 2's deck: 7, 10, 8, 2
//! Player 1 plays: 3
//! Player 2 plays: 7
//! Player 2 wins the round!
//!
//! -- Round 5 --
//! Player 1's deck: 1, 9, 5, 6, 4
//! Player 2's deck: 10, 8, 2, 7, 3
//! Player 1 plays: 1
//! Player 2 plays: 10
//! Player 2 wins the round!
//!
//! ...several more rounds pass...
//!
//! -- Round 27 --
//! Player 1's deck: 5, 4, 1
//! Player 2's deck: 8, 9, 7, 3, 2, 10, 6
//! Player 1 plays: 5
//! Player 2 plays: 8
//! Player 2 wins the round!
//!
//! -- Round 28 --
//! Player 1's deck: 4, 1
//! Player 2's deck: 9, 7, 3, 2, 10, 6, 8, 5
//! Player 1 plays: 4
//! Player 2 plays: 9
//! Player 2 wins the round!
//!
//! -- Round 29 --
//! Player 1's deck: 1
//! Player 2's deck: 7, 3, 2, 10, 6, 8, 5, 9, 4
//! Player 1 plays: 1
//! Player 2 plays: 7
//! Player 2 wins the round!
//!
//!
//! == Post-game results ==
//! Player 1's deck:
//! Player 2's deck: 3, 2, 10, 6, 8, 5, 9, 4, 7, 1
//! Once the game ends, you can calculate the winning player's score. The bottom card in their deck is worth the value of the card multiplied by 1, the second-from-the-bottom card is worth the value of the card multiplied by 2, and so on. With 10 cards, the top card is worth the value on the card multiplied by 10. In this example, the winning player's score is:
//!
//! 3 * 10
//! + 2 * 9
//! + 10 * 8
//! + 6 * 7
//! + 8 * 6
//! + 5 * 5
//! + 9 * 4
//! + 4 * 3
//! + 7 * 2
//! + 1 * 1
//! = 306
//! So, once the game ends, the winning player's score is 306.
//!
//! Play the small crab in a game of Combat using the two decks you just dealt. What is the winning player's score?
//!
//! --- Part Two ---
//! You lost to the small crab! Fortunately, crabs aren't very good at recursion. To defend your honor as a Raft Captain, you challenge the small crab to a game of Recursive Combat.
//!
//! Recursive Combat still starts by splitting the cards into two decks (you offer to play with the same starting decks as before - it's only fair). Then, the game consists of a series of rounds with a few changes:
//!
//! Before either player deals a card, if there was a previous round in this game that had exactly the same cards in the same order in the same players' decks, the game instantly ends in a win for player 1. Previous rounds from other games are not considered. (This prevents infinite games of Recursive Combat, which everyone agrees is a bad idea.)
//! Otherwise, this round's cards must be in a new configuration; the players begin the round by each drawing the top card of their deck as normal.
//! If both players have at least as many cards remaining in their deck as the value of the card they just drew, the winner of the round is determined by playing a new game of Recursive Combat (see below).
//! Otherwise, at least one player must not have enough cards left in their deck to recurse; the winner of the round is the player with the higher-value card.
//! As in regular Combat, the winner of the round (even if they won the round by winning a sub-game) takes the two cards dealt at the beginning of the round and places them on the bottom of their own deck (again so that the winner's card is above the other card). Note that the winner's card might be the lower-valued of the two cards if they won the round due to winning a sub-game. If collecting cards by winning the round causes a player to have all of the cards, they win, and the game ends.
//!
//! Here is an example of a small game that would loop forever without the infinite game prevention rule:
//!
//! Player 1:
//! 43
//! 19
//!
//! Player 2:
//! 2
//! 29
//! 14
//! During a round of Recursive Combat, if both players have at least as many cards in their own decks as the number on the card they just dealt, the winner of the round is determined by recursing into a sub-game of Recursive Combat. (For example, if player 1 draws the 3 card, and player 2 draws the 7 card, this would occur if player 1 has at least 3 cards left and player 2 has at least 7 cards left, not counting the 3 and 7 cards that were drawn.)
//!
//! To play a sub-game of Recursive Combat, each player creates a new deck by making a copy of the next cards in their deck (the quantity of cards copied is equal to the number on the card they drew to trigger the sub-game). During this sub-game, the game that triggered it is on hold and completely unaffected; no cards are removed from players' decks to form the sub-game. (For example, if player 1 drew the 3 card, their deck in the sub-game would be copies of the next three cards in their deck.)
//!
//! Here is a complete example of gameplay, where Game 1 is the primary game of Recursive Combat:
//!
//! === Game 1 ===
//!
//! -- Round 1 (Game 1) --
//! Player 1's deck: 9, 2, 6, 3, 1
//! Player 2's deck: 5, 8, 4, 7, 10
//! Player 1 plays: 9
//! Player 2 plays: 5
//! Player 1 wins round 1 of game 1!
//!
//! -- Round 2 (Game 1) --
//! Player 1's deck: 2, 6, 3, 1, 9, 5
//! Player 2's deck: 8, 4, 7, 10
//! Player 1 plays: 2
//! Player 2 plays: 8
//! Player 2 wins round 2 of game 1!
//!
//! -- Round 3 (Game 1) --
//! Player 1's deck: 6, 3, 1, 9, 5
//! Player 2's deck: 4, 7, 10, 8, 2
//! Player 1 plays: 6
//! Player 2 plays: 4
//! Player 1 wins round 3 of game 1!
//!
//! -- Round 4 (Game 1) --
//! Player 1's deck: 3, 1, 9, 5, 6, 4
//! Player 2's deck: 7, 10, 8, 2
//! Player 1 plays: 3
//! Player 2 plays: 7
//! Player 2 wins round 4 of game 1!
//!
//! -- Round 5 (Game 1) --
//! Player 1's deck: 1, 9, 5, 6, 4
//! Player 2's deck: 10, 8, 2, 7, 3
//! Player 1 plays: 1
//! Player 2 plays: 10
//! Player 2 wins round 5 of game 1!
//!
//! -- Round 6 (Game 1) --
//! Player 1's deck: 9, 5, 6, 4
//! Player 2's deck: 8, 2, 7, 3, 10, 1
//! Player 1 plays: 9
//! Player 2 plays: 8
//! Player 1 wins round 6 of game 1!
//!
//! -- Round 7 (Game 1) --
//! Player 1's deck: 5, 6, 4, 9, 8
//! Player 2's deck: 2, 7, 3, 10, 1
//! Player 1 plays: 5
//! Player 2 plays: 2
//! Player 1 wins round 7 of game 1!
//!
//! -- Round 8 (Game 1) --
//! Player 1's deck: 6, 4, 9, 8, 5, 2
//! Player 2's deck: 7, 3, 10, 1
//! Player 1 plays: 6
//! Player 2 plays: 7
//! Player 2 wins round 8 of game 1!
//!
//! -- Round 9 (Game 1) --
//! Player 1's deck: 4, 9, 8, 5, 2
//! Player 2's deck: 3, 10, 1, 7, 6
//! Player 1 plays: 4
//! Player 2 plays: 3
//! Playing a sub-game to determine the winner...
//!
//! === Game 2 ===
//!
//! -- Round 1 (Game 2) --
//! Player 1's deck: 9, 8, 5, 2
//! Player 2's deck: 10, 1, 7
//! Player 1 plays: 9
//! Player 2 plays: 10
//! Player 2 wins round 1 of game 2!
//!
//! -- Round 2 (Game 2) --
//! Player 1's deck: 8, 5, 2
//! Player 2's deck: 1, 7, 10, 9
//! Player 1 plays: 8
//! Player 2 plays: 1
//! Player 1 wins round 2 of game 2!
//!
//! -- Round 3 (Game 2) --
//! Player 1's deck: 5, 2, 8, 1
//! Player 2's deck: 7, 10, 9
//! Player 1 plays: 5
//! Player 2 plays: 7
//! Player 2 wins round 3 of game 2!
//!
//! -- Round 4 (Game 2) --
//! Player 1's deck: 2, 8, 1
//! Player 2's deck: 10, 9, 7, 5
//! Player 1 plays: 2
//! Player 2 plays: 10
//! Player 2 wins round 4 of game 2!
//!
//! -- Round 5 (Game 2) --
//! Player 1's deck: 8, 1
//! Player 2's deck: 9, 7, 5, 10, 2
//! Player 1 plays: 8
//! Player 2 plays: 9
//! Player 2 wins round 5 of game 2!
//!
//! -- Round 6 (Game 2) --
//! Player 1's deck: 1
//! Player 2's deck: 7, 5, 10, 2, 9, 8
//! Player 1 plays: 1
//! Player 2 plays: 7
//! Player 2 wins round 6 of game 2!
//! The winner of game 2 is player 2!
//!
//! ...anyway, back to game 1.
//! Player 2 wins round 9 of game 1!
//!
//! -- Round 10 (Game 1) --
//! Player 1's deck: 9, 8, 5, 2
//! Player 2's deck: 10, 1, 7, 6, 3, 4
//! Player 1 plays: 9
//! Player 2 plays: 10
//! Player 2 wins round 10 of game 1!
//!
//! -- Round 11 (Game 1) --
//! Player 1's deck: 8, 5, 2
//! Player 2's deck: 1, 7, 6, 3, 4, 10, 9
//! Player 1 plays: 8
//! Player 2 plays: 1
//! Player 1 wins round 11 of game 1!
//!
//! -- Round 12 (Game 1) --
//! Player 1's deck: 5, 2, 8, 1
//! Player 2's deck: 7, 6, 3, 4, 10, 9
//! Player 1 plays: 5
//! Player 2 plays: 7
//! Player 2 wins round 12 of game 1!
//!
//! -- Round 13 (Game 1) --
//! Player 1's deck: 2, 8, 1
//! Player 2's deck: 6, 3, 4, 10, 9, 7, 5
//! Player 1 plays: 2
//! Player 2 plays: 6
//! Playing a sub-game to determine the winner...
//!
//! === Game 3 ===
//!
//! -- Round 1 (Game 3) --
//! Player 1's deck: 8, 1
//! Player 2's deck: 3, 4, 10, 9, 7, 5
//! Player 1 plays: 8
//! Player 2 plays: 3
//! Player 1 wins round 1 of game 3!
//!
//! -- Round 2 (Game 3) --
//! Player 1's deck: 1, 8, 3
//! Player 2's deck: 4, 10, 9, 7, 5
//! Player 1 plays: 1
//! Player 2 plays: 4
//! Playing a sub-game to determine the winner...
//!
//! === Game 4 ===
//!
//! -- Round 1 (Game 4) --
//! Player 1's deck: 8
//! Player 2's deck: 10, 9, 7, 5
//! Player 1 plays: 8
//! Player 2 plays: 10
//! Player 2 wins round 1 of game 4!
//! The winner of game 4 is player 2!
//!
//! ...anyway, back to game 3.
//! Player 2 wins round 2 of game 3!
//!
//! -- Round 3 (Game 3) --
//! Player 1's deck: 8, 3
//! Player 2's deck: 10, 9, 7, 5, 4, 1
//! Player 1 plays: 8
//! Player 2 plays: 10
//! Player 2 wins round 3 of game 3!
//!
//! -- Round 4 (Game 3) --
//! Player 1's deck: 3
//! Player 2's deck: 9, 7, 5, 4, 1, 10, 8
//! Player 1 plays: 3
//! Player 2 plays: 9
//! Player 2 wins round 4 of game 3!
//! The winner of game 3 is player 2!
//!
//! ...anyway, back to game 1.
//! Player 2 wins round 13 of game 1!
//!
//! -- Round 14 (Game 1) --
//! Player 1's deck: 8, 1
//! Player 2's deck: 3, 4, 10, 9, 7, 5, 6, 2
//! Player 1 plays: 8
//! Player 2 plays: 3
//! Player 1 wins round 14 of game 1!
//!
//! -- Round 15 (Game 1) --
//! Player 1's deck: 1, 8, 3
//! Player 2's deck: 4, 10, 9, 7, 5, 6, 2
//! Player 1 plays: 1
//! Player 2 plays: 4
//! Playing a sub-game to determine the winner...
//!
//! === Game 5 ===
//!
//! -- Round 1 (Game 5) --
//! Player 1's deck: 8
//! Player 2's deck: 10, 9, 7, 5
//! Player 1 plays: 8
//! Player 2 plays: 10
//! Player 2 wins round 1 of game 5!
//! The winner of game 5 is player 2!
//!
//! ...anyway, back to game 1.
//! Player 2 wins round 15 of game 1!
//!
//! -- Round 16 (Game 1) --
//! Player 1's deck: 8, 3
//! Player 2's deck: 10, 9, 7, 5, 6, 2, 4, 1
//! Player 1 plays: 8
//! Player 2 plays: 10
//! Player 2 wins round 16 of game 1!
//!
//! -- Round 17 (Game 1) --
//! Player 1's deck: 3
//! Player 2's deck: 9, 7, 5, 6, 2, 4, 1, 10, 8
//! Player 1 plays: 3
//! Player 2 plays: 9
//! Player 2 wins round 17 of game 1!
//! The winner of game 1 is player 2!
//!
//!
//! == Post-game results ==
//! Player 1's deck:
//! Player 2's deck: 7, 5, 6, 2, 4, 1, 10, 8, 9, 3
//! After the game, the winning player's score is calculated from the cards they have in their original deck using the same rules as regular Combat. In the above game, the winning player's score is 291.
//!
//! Defend your honor as Raft Captain by playing the small crab in a game of Recursive Combat using the same two decks as before. What is the winning player's score?
use std::collections::{HashSet, VecDeque};
use aoc_runner_derive::aoc;
use crate::debug_println;
#[derive(Clone, Debug, PartialEq)]
struct Players {
p1: VecDeque<usize>,
p2: VecDeque<usize>,
}
fn generator(input: &str) -> Players {
let players: Vec<_> = input.split("\n\n").collect();
Players {
p1: players[0]
.split('\n')
.skip(1)
.map(|s| s.trim().parse().expect("couldn't parse p1 number"))
.collect::<VecDeque<usize>>(),
p2: players[1]
.split('\n')
.skip(1)
.map(|s| s.trim().parse().expect("couldn't parse p2 number"))
.collect::<VecDeque<usize>>(),
}
}
fn deck_to_str(deck: &VecDeque<usize>) -> String {
let mut s = format!("{}", deck.iter().nth(0).unwrap());
for c in deck.iter().skip(1) {
s = format!("{}, {}", s, c);
}
s
}
use std::sync::atomic::{AtomicUsize, Ordering};
static GAME_NUM: AtomicUsize = AtomicUsize::new(1);
impl Players {
fn play_recursive(&mut self, game: usize, parent_game: usize) -> bool {
debug_println!("=== Game {} ===\n", game);
let mut round = 0;
// For debug builds only.
let _ = round;
let _ = parent_game;
let mut previous_rounds = HashSet::new();
while !self.p1.is_empty() && !self.p2.is_empty() {
let p1s = deck_to_str(&self.p1);
let p2s = deck_to_str(&self.p2);
let deck_key = format!("{} *** {}", p1s, p2s);
if previous_rounds.contains(&deck_key) {
// Loop detected, p1 wins
return true;
}
debug_println!("{}: {}", game, deck_key);
previous_rounds.insert(deck_key);
let p1 = self.p1.pop_front().unwrap();
let p2 = self.p2.pop_front().unwrap();
round += 1;
debug_println!("-- Round {} (Game {}) --", round, game);
debug_println!("Player 1's deck: {}", p1s);
debug_println!("Player 2's deck: {}", p2s);
debug_println!("Player 1 plays: {}", p1);
debug_println!("Player 2 plays: {}", p2);
//dbg!(p1, self.p1.len(), p2, self.p2.len());
let p1_won = if p1 <= self.p1.len() && p2 <= self.p2.len() {
// Recurse
debug_println!("Playing a sub-game to determine the winner...\n");
let mut sub_game = self.clone();
sub_game.p1.truncate(p1);
sub_game.p2.truncate(p2);
let next_game = GAME_NUM.fetch_add(1, Ordering::SeqCst);
let p1_won = sub_game.play_recursive(next_game, game);
p1_won
} else {
p1 > p2
};
if p1_won {
debug_println!("Player 1 wins round {} of game {}!", round, game);
self.p1.push_back(p1);
self.p1.push_back(p2);
} else {
debug_println!("Player 2 wins round {} of game {}!", round, game);
self.p2.push_back(p2);
self.p2.push_back(p1);
}
debug_println!();
}
let p1_won = self.p1.len() > self.p2.len();
if p1_won {
debug_println!("The winner of game {} is player 1!", game);
} else {
debug_println!("The winner of game {} is player 2!", game);
}
debug_println!("...anyway, back to game {}.", parent_game);
p1_won
}
fn play(&mut self) {
//let mut round = 0;
while !self.p1.is_empty() && !self.p2.is_empty() {
let p1 = self.p1.pop_front().unwrap();
let p2 = self.p2.pop_front().unwrap();
//round += 1;
//println!("-- Round {} --", round);
//println!("Player 1's deck: {:?}", self.p1);
//println!("Player 2's deck: {:?}", self.p2);
//println!("Player 1 plays: {}", p1);
//println!("Player 2 plays: {}", p2);
if p1 > p2 {
//println!("Play 1 wins the round!");
self.p1.push_back(p1);
self.p1.push_back(p2);
} else {
//println!("Play 2 wins the round!");
self.p2.push_back(p2);
self.p2.push_back(p1);
}
//println!();
}
}
fn winning_score(&self) -> usize {
let winner = if self.p1.len() > self.p2.len() {
&self.p1
} else {
&self.p2
};
winner
.iter()
.rev()
.enumerate()
.map(|(i, n)| (i + 1) * *n)
.sum()
}
}
#[aoc(day22, part1)]
fn solution1(input: &str) -> usize {
let mut players = generator(input);
players.play();
players.winning_score()
}
#[aoc(day22, part2)]
fn solution2(input: &str) -> usize {
let mut players = generator(input);
players.play_recursive(GAME_NUM.fetch_add(1, Ordering::SeqCst), 0);
players.winning_score()
}
#[cfg(test)]
mod tests {
use super::*;
const INPUT: &'static str = r#"Player 1:
9
2
6
3
1
Player 2:
5
8
4
7
10"#;
#[test]
fn test_generator() {
assert_eq!(
generator(INPUT),
Players {
p1: vec![9, 2, 6, 3, 1].into(),
p2: vec![5, 8, 4, 7, 10].into(),
}
);
}
#[test]
fn test_solution1() {
assert_eq!(solution1(INPUT), 306);
}
#[test]
fn test_solution2() {
assert_eq!(solution2(INPUT), 291);
}
}

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//! --- Day 23: Crab Cups ---
//! The small crab challenges you to a game! The crab is going to mix up some cups, and you have to predict where they'll end up.
//!
//! The cups will be arranged in a circle and labeled clockwise (your puzzle input). For example, if your labeling were 32415, there would be five cups in the circle; going clockwise around the circle from the first cup, the cups would be labeled 3, 2, 4, 1, 5, and then back to 3 again.
//!
//! Before the crab starts, it will designate the first cup in your list as the current cup. The crab is then going to do 100 moves.
//!
//! Each move, the crab does the following actions:
//!
//! The crab picks up the three cups that are immediately clockwise of the current cup. They are removed from the circle; cup spacing is adjusted as necessary to maintain the circle.
//! The crab selects a destination cup: the cup with a label equal to the current cup's label minus one. If this would select one of the cups that was just picked up, the crab will keep subtracting one until it finds a cup that wasn't just picked up. If at any point in this process the value goes below the lowest value on any cup's label, it wraps around to the highest value on any cup's label instead.
//! The crab places the cups it just picked up so that they are immediately clockwise of the destination cup. They keep the same order as when they were picked up.
//! The crab selects a new current cup: the cup which is immediately clockwise of the current cup.
//! For example, suppose your cup labeling were 389125467. If the crab were to do merely 10 moves, the following changes would occur:
//!
//! -- move 1 --
//! cups: (3) 8 9 1 2 5 4 6 7
//! pick up: 8, 9, 1
//! destination: 2
//!
//! -- move 2 --
//! cups: 3 (2) 8 9 1 5 4 6 7
//! pick up: 8, 9, 1
//! destination: 7
//!
//! -- move 3 --
//! cups: 3 2 (5) 4 6 7 8 9 1
//! pick up: 4, 6, 7
//! destination: 3
//!
//! -- move 4 --
//! cups: 7 2 5 (8) 9 1 3 4 6
//! pick up: 9, 1, 3
//! destination: 7
//!
//! -- move 5 --
//! cups: 3 2 5 8 (4) 6 7 9 1
//! pick up: 6, 7, 9
//! destination: 3
//!
//! -- move 6 --
//! cups: 9 2 5 8 4 (1) 3 6 7
//! pick up: 3, 6, 7
//! destination: 9
//!
//! -- move 7 --
//! cups: 7 2 5 8 4 1 (9) 3 6
//! pick up: 3, 6, 7
//! destination: 8
//!
//! -- move 8 --
//! cups: 8 3 6 7 4 1 9 (2) 5
//! pick up: 5, 8, 3
//! destination: 1
//!
//! -- move 9 --
//! cups: 7 4 1 5 8 3 9 2 (6)
//! pick up: 7, 4, 1
//! destination: 5
//!
//! -- move 10 --
//! cups: (5) 7 4 1 8 3 9 2 6
//! pick up: 7, 4, 1
//! destination: 3
//!
//! -- final --
//! cups: 5 (8) 3 7 4 1 9 2 6
//! In the above example, the cups' values are the labels as they appear moving clockwise around the circle; the current cup is marked with ( ).
//!
//! After the crab is done, what order will the cups be in? Starting after the cup labeled 1, collect the other cups' labels clockwise into a single string with no extra characters; each number except 1 should appear exactly once. In the above example, after 10 moves, the cups clockwise from 1 are labeled 9, 2, 6, 5, and so on, producing 92658374. If the crab were to complete all 100 moves, the order after cup 1 would be 67384529.
//!
//! Using your labeling, simulate 100 moves. What are the labels on the cups after cup 1?
//! --- Part Two ---
//! Due to what you can only assume is a mistranslation (you're not exactly fluent in Crab), you are quite surprised when the crab starts arranging many cups in a circle on your raft - one million (1000000) in total.
//!
//! Your labeling is still correct for the first few cups; after that, the remaining cups are just numbered in an increasing fashion starting from the number after the highest number in your list and proceeding one by one until one million is reached. (For example, if your labeling were 54321, the cups would be numbered 5, 4, 3, 2, 1, and then start counting up from 6 until one million is reached.) In this way, every number from one through one million is used exactly once.
//!
//! After discovering where you made the mistake in translating Crab Numbers, you realize the small crab isn't going to do merely 100 moves; the crab is going to do ten million (10000000) moves!
//!
//! The crab is going to hide your stars - one each - under the two cups that will end up immediately clockwise of cup 1. You can have them if you predict what the labels on those cups will be when the crab is finished.
//!
//! In the above example (389125467), this would be 934001 and then 159792; multiplying these together produces 149245887792.
//!
//! Determine which two cups will end up immediately clockwise of cup 1. What do you get if you multiply their labels together?
use std::fmt;
use aoc_runner_derive::aoc;
use crate::debug_println;
trait Hand {
fn play(&mut self, rounds: usize) {
use std::time::{Duration, Instant};
let start = Instant::now();
let mut last_report = Instant::now();
(0..rounds).for_each(|i| {
debug_println!("-- move {} --", i + 1);
if last_report.elapsed() > Duration::new(1, 0) {
let elapsed = start.elapsed();
let runtime = elapsed * rounds as u32 / i as u32;
let eta = runtime - elapsed;
println!(
"{} steps ({}%) in {}s, Estimated runtime {}s, ETA {}s",
i,
100 * i / rounds,
elapsed.as_secs_f32(),
runtime.as_secs_f32(),
eta.as_secs_f32(),
);
last_report = Instant::now();
}
self.step();
});
}
fn part1_answer(&self) -> String;
fn part2_answer(&self) -> usize;
fn step(&mut self);
fn test_cur_to_end(&self) -> Vec<usize>;
}
/// TODO(wathiede): redo based on this sentence from glenng:
/// `So a circular linked list containing 2,1,3 would be [3,1,2]`
#[derive(Debug)]
struct FastHand {
// A cup labeled `1` will be represented by the index 0, in that cell will be the index of cup
// clockwise to `1`.
// Stores the next cup as indexed value (i.e. label-1).
cups: Vec<usize>,
cur: Cup,
min: usize,
max: usize,
}
/// Stores the label of a cup. Use `as_idx` to compute the index into FastHand.cups. Use
/// `from_idx` to build a `Cup` from a given index into FastHand.cups.
#[derive(Copy, Clone, Debug, PartialEq)]
struct Cup(usize);
impl Cup {
fn new(val: usize) -> Cup {
Cup(val)
}
fn from_idx(idx: usize) -> Cup {
Cup(idx + 1)
}
fn as_idx(&self) -> usize {
self.0 - 1
}
}
impl FastHand {
fn new(s: &str) -> FastHand {
let data: Vec<_> = s.bytes().map(|s| (s - b'0') as usize).collect();
let min = *data.iter().min().unwrap();
let max = *data.iter().max().unwrap();
let mut cups = vec![0; max];
let mut last = 0;
data.windows(2).for_each(|nums| {
let cur_cup = Cup::new(nums[0]);
let next_cup = Cup::new(nums[1]);
last = next_cup.as_idx();
cups[cur_cup.as_idx()] = next_cup.as_idx();
});
let cur = Cup(data[0]);
cups[last] = cur.as_idx();
FastHand {
cups,
cur,
min,
max,
}
}
fn new_part2(s: &str) -> FastHand {
let mut data: Vec<_> = s.bytes().map(|s| (s - b'0') as usize).collect();
let min = *data.iter().min().unwrap();
let mut max = *data.iter().max().unwrap();
data.extend(max + 1..=1000000);
max = 1000000;
let mut cups = vec![0; max];
let mut last = 0;
data.windows(2).for_each(|nums| {
let cur_cup = Cup::new(nums[0]);
let next_cup = Cup::new(nums[1]);
last = next_cup.as_idx();
cups[cur_cup.as_idx()] = next_cup.as_idx();
});
let cur = Cup(data[0]);
cups[last] = cur.as_idx();
FastHand {
cups,
cur,
min,
max,
}
}
fn destination(&self, skip_vals: &[Cup]) -> Cup {
let mut search_val = Cup::new(self.cur.0 - 1);
while skip_vals.contains(&search_val) {
search_val = Cup::new(search_val.0 - 1);
}
if search_val.0 < self.min {
search_val = Cup::new(self.max);
}
while skip_vals.contains(&search_val) {
search_val = Cup::new(search_val.0 - 1);
}
search_val
}
fn next(&self, c: Cup) -> Cup {
//dbg!(c.as_idx(), self.cups[c.as_idx()]);
Cup::from_idx(self.cups[c.as_idx()])
}
}
impl fmt::Display for FastHand {
fn fmt(&self, f: &mut fmt::Formatter<'_>) -> fmt::Result {
let mut cur = self.cur;
write!(f, "({}) ", cur.0)?;
for _ in 1..self.cups.len() {
cur = Cup::from_idx(self.cups[cur.as_idx()]);
write!(f, "{} ", cur.0)?;
}
Ok(())
}
}
impl Hand for FastHand {
fn step(&mut self) {
let mut cur = self.cur;
let three: Vec<_> = (0..3)
.map(|_| {
cur = self.next(cur);
cur
})
.collect();
let dst = self.destination(&three);
debug_println!(
"cur {} cups {} three {:?} destination {:?}",
self.cur.0,
self,
three,
dst
);
debug_println!("cups (raw) {:?}", self.cups);
// Cur points to whatever end of three used to.
self.cups[self.cur.as_idx()] = self.cups[three[2].as_idx()];
// End of three points to whatever dst used to point to.
self.cups[three[2].as_idx()] = self.cups[dst.as_idx()];
// Dst points to the beginning of three.
self.cups[dst.as_idx()] = three[0].as_idx();
// Cur points to whatever is next in the circle.
self.cur = self.next(self.cur);
}
fn test_cur_to_end(&self) -> Vec<usize> {
let mut res = Vec::with_capacity(self.cups.len());
let mut cur = self.cur;
(0..self.cups.len()).for_each(|_| {
res.push(cur.0);
cur = Cup::from_idx(self.cups[cur.as_idx()]);
});
res
}
fn part1_answer(&self) -> String {
let mut cur = Cup::new(1);
let mut s = "".to_string();
for _ in 1..self.cups.len() {
cur = self.next(cur);
s = format!("{}{}", s, cur.0);
}
s
}
fn part2_answer(&self) -> usize {
let one = Cup::new(1);
let v1 = self.next(one);
let v2 = self.next(v1);
v1.0 * v2.0
}
}
struct SlowHand {
cups: Vec<usize>,
cur: usize,
min: usize,
max: usize,
}
impl fmt::Display for SlowHand {
fn fmt(&self, f: &mut fmt::Formatter<'_>) -> fmt::Result {
for (i, cup) in self.cups.iter().enumerate() {
if i == self.cur {
write!(f, "({}) ", cup)?;
} else {
write!(f, "{} ", cup)?;
};
}
Ok(())
}
}
impl SlowHand {
#[allow(dead_code)]
fn new(s: &str) -> SlowHand {
let cups: Vec<_> = s.bytes().map(|s| (s - b'0') as usize).collect();
let min = *cups.iter().min().unwrap();
let max = *cups.iter().max().unwrap();
SlowHand {
cups,
cur: 0,
min,
max,
}
}
}
impl Hand for SlowHand {
fn part1_answer(&self) -> String {
let idx = self.cups.iter().position(|i| i == &1).unwrap();
let s = self.cups[idx + 1..]
.iter()
.fold("".to_string(), |acc, c| format!("{}{}", acc, c));
self.cups[..idx]
.iter()
.fold(s, |acc, c| format!("{}{}", acc, c))
}
fn step(&mut self) {
debug_println!("{}", self);
let cur = self.cups[self.cur];
let mut pickups = Vec::new();
let mut destination = self.cups[self.cur] - 1;
let mut rm_idx = (self.cur + 1) % self.cups.len();
(0..3).for_each(|_| {
pickups.push(self.cups.remove(rm_idx));
if rm_idx >= self.cups.len() {
rm_idx -= self.cups.len();
}
});
let cur = self.cups.iter().position(|i| i == &cur).unwrap();
let next = self.cups[(cur + 1) % self.cups.len()];
while pickups.contains(&destination) {
destination -= 1;
}
if destination < self.min {
destination = self.max;
while pickups.contains(&destination) {
destination -= 1;
}
}
//dbg!(&pickups, &self.cups, destination);
let idx = self.cups.iter().position(|i| i == &destination).unwrap();
debug_println!("pick up: {:?}", pickups);
debug_println!("destination: {}({})", destination, idx);
debug_println!("next destination: {}", next);
pickups
.into_iter()
.rev()
.for_each(|v| self.cups.insert(idx + 1, v));
self.cur = self.cups.iter().position(|i| i == &next).unwrap();
}
/// Return internal state in a way unit tests can use
fn test_cur_to_end(&self) -> Vec<usize> {
self.cups[self.cur..]
.iter()
.chain(self.cups[..self.cur].iter())
.cloned()
.collect()
}
fn part2_answer(&self) -> usize {
let one = self.cups.iter().position(|n| n == &1).unwrap();
self.cups[one + 1] * self.cups[one + 2]
}
}
#[aoc(day23, part1)]
fn solution1(input: &str) -> String {
let mut hand = FastHand::new(input);
hand.play(100);
hand.part1_answer()
}
#[aoc(day23, part2)]
fn solution2(input: &str) -> usize {
let mut hand = FastHand::new_part2(input);
hand.play(10_000_000);
hand.part2_answer()
}
#[cfg(test)]
mod tests {
use super::*;
const INPUT: &'static str = "389125467";
fn test_hand<H: Hand>(mut hand: H) {
let want = vec![
[3, 8, 9, 1, 2, 5, 4, 6, 7],
[2, 8, 9, 1, 5, 4, 6, 7, 3],
[5, 4, 6, 7, 8, 9, 1, 3, 2],
[8, 9, 1, 3, 4, 6, 7, 2, 5],
[4, 6, 7, 9, 1, 3, 2, 5, 8],
[1, 3, 6, 7, 9, 2, 5, 8, 4],
[9, 3, 6, 7, 2, 5, 8, 4, 1],
[2, 5, 8, 3, 6, 7, 4, 1, 9],
[6, 7, 4, 1, 5, 8, 3, 9, 2],
[5, 7, 4, 1, 8, 3, 9, 2, 6],
[8, 3, 7, 4, 1, 9, 2, 6, 5],
];
want.iter().enumerate().for_each(|(step, want)| {
assert_eq!(hand.test_cur_to_end(), want, "step0 {}", step);
hand.step();
});
}
#[test]
fn slow_step() {
let hand = SlowHand::new(INPUT);
test_hand(hand);
}
#[test]
fn fast_step() {
let hand = FastHand::new(INPUT);
test_hand(hand);
}
#[test]
fn part1_10step_slow() {
let mut hand = SlowHand::new(INPUT);
hand.play(10);
assert_eq!(hand.part1_answer(), "92658374");
}
#[test]
fn part1_10step_fast() {
let mut hand = FastHand::new(INPUT);
hand.play(10);
assert_eq!(hand.part1_answer(), "92658374");
}
#[test]
fn part1() {
assert_eq!(solution1(INPUT), "67384529");
}
// This is too slow in debug mode due to debug_println, build in release to run.
#[cfg(not(debug_assertions))]
#[test]
fn part2() {
assert_eq!(solution2("389125467"), 149245887792);
}
}

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//! --- Day 24: Lobby Layout ---
//! Your raft makes it to the tropical island; it turns out that the small crab was an excellent navigator. You make your way to the resort.
//!
//! As you enter the lobby, you discover a small problem: the floor is being renovated. You can't even reach the check-in desk until they've finished installing the new tile floor.
//!
//! The tiles are all hexagonal; they need to be arranged in a hex grid with a very specific color pattern. Not in the mood to wait, you offer to help figure out the pattern.
//!
//! The tiles are all white on one side and black on the other. They start with the white side facing up. The lobby is large enough to fit whatever pattern might need to appear there.
//!
//! A member of the renovation crew gives you a list of the tiles that need to be flipped over (your puzzle input). Each line in the list identifies a single tile that needs to be flipped by giving a series of steps starting from a reference tile in the very center of the room. (Every line starts from the same reference tile.)
//!
//! Because the tiles are hexagonal, every tile has six neighbors: east, southeast, southwest, west, northwest, and northeast. These directions are given in your list, respectively, as e, se, sw, w, nw, and ne. A tile is identified by a series of these directions with no delimiters; for example, esenee identifies the tile you land on if you start at the reference tile and then move one tile east, one tile southeast, one tile northeast, and one tile east.
//!
//! Each time a tile is identified, it flips from white to black or from black to white. Tiles might be flipped more than once. For example, a line like esew flips a tile immediately adjacent to the reference tile, and a line like nwwswee flips the reference tile itself.
//!
//! Here is a larger example:
//!
//! sesenwnenenewseeswwswswwnenewsewsw
//! neeenesenwnwwswnenewnwwsewnenwseswesw
//! seswneswswsenwwnwse
//! nwnwneseeswswnenewneswwnewseswneseene
//! swweswneswnenwsewnwneneseenw
//! eesenwseswswnenwswnwnwsewwnwsene
//! sewnenenenesenwsewnenwwwse
//! wenwwweseeeweswwwnwwe
//! wsweesenenewnwwnwsenewsenwwsesesenwne
//! neeswseenwwswnwswswnw
//! nenwswwsewswnenenewsenwsenwnesesenew
//! enewnwewneswsewnwswenweswnenwsenwsw
//! sweneswneswneneenwnewenewwneswswnese
//! swwesenesewenwneswnwwneseswwne
//! enesenwswwswneneswsenwnewswseenwsese
//! wnwnesenesenenwwnenwsewesewsesesew
//! nenewswnwewswnenesenwnesewesw
//! eneswnwswnwsenenwnwnwwseeswneewsenese
//! neswnwewnwnwseenwseesewsenwsweewe
//! wseweeenwnesenwwwswnew
//! In the above example, 10 tiles are flipped once (to black), and 5 more are flipped twice (to black, then back to white). After all of these instructions have been followed, a total of 10 tiles are black.
//!
//! Go through the renovation crew's list and determine which tiles they need to flip. After all of the instructions have been followed, how many tiles are left with the black side up?
//!
//! --- Part Two ---
//! The tile floor in the lobby is meant to be a living art exhibit. Every day, the tiles are all flipped according to the following rules:
//!
//! Any black tile with zero or more than 2 black tiles immediately adjacent to it is flipped to white.
//! Any white tile with exactly 2 black tiles immediately adjacent to it is flipped to black.
//! Here, tiles immediately adjacent means the six tiles directly touching the tile in question.
//!
//! The rules are applied simultaneously to every tile; put another way, it is first determined which tiles need to be flipped, then they are all flipped at the same time.
//!
//! In the above example, the number of black tiles that are facing up after the given number of days has passed is as follows:
//!
//! Day 1: 15
//! Day 2: 12
//! Day 3: 25
//! Day 4: 14
//! Day 5: 23
//! Day 6: 28
//! Day 7: 41
//! Day 8: 37
//! Day 9: 49
//! Day 10: 37
//!
//! Day 20: 132
//! Day 30: 259
//! Day 40: 406
//! Day 50: 566
//! Day 60: 788
//! Day 70: 1106
//! Day 80: 1373
//! Day 90: 1844
//! Day 100: 2208
//! After executing this process a total of 100 times, there would be 2208 black tiles facing up.
//!
//! How many tiles will be black after 100 days?
use std::collections::HashMap;
use aoc_runner_derive::{aoc, aoc_generator};
#[derive(Debug, PartialEq)]
enum Direction {
East,
SouthEast,
SouthWest,
West,
NorthWest,
NorthEast,
}
#[derive(Copy, Clone, Debug, PartialEq, Eq, Hash)]
struct TileCoord((isize, isize, isize));
#[derive(Debug, PartialEq)]
struct Tile {
directions: Vec<Direction>,
}
impl std::str::FromStr for Tile {
type Err = ();
fn from_str(s: &str) -> Result<Tile, ()> {
let mut it = s.bytes();
let mut directions = Vec::new();
use Direction::*;
while let Some(b) = it.next() {
match b {
b'n' => match it.next().unwrap() {
b'e' => directions.push(NorthEast),
b'w' => directions.push(NorthWest),
c => panic!(format!("unexpected tile direction {}", c)),
},
b's' => match it.next().unwrap() {
b'e' => directions.push(SouthEast),
b'w' => directions.push(SouthWest),
c => panic!(format!("unexpected tile direction {}", c)),
},
b'e' => directions.push(East),
b'w' => directions.push(West),
c => panic!(format!("unexpected tile direction {}", c)),
}
}
Ok(Tile { directions })
}
}
impl Tile {
fn coord(&self) -> TileCoord {
// Based on 'cube coordinates' from https://www.redblobgames.com/grids/hexagons/
TileCoord(
self.directions
.iter()
.fold((0, 0, 0), |(x, y, z), dir| match dir {
Direction::East => (x + 1, y - 1, z),
Direction::SouthEast => (x, y - 1, z + 1),
Direction::SouthWest => (x - 1, y, z + 1),
Direction::West => (x - 1, y + 1, z),
Direction::NorthWest => (x, y + 1, z - 1),
Direction::NorthEast => (x + 1, y, z - 1),
}),
)
}
}
#[aoc_generator(day24)]
fn parse(input: &str) -> Vec<Tile> {
input
.split('\n')
.map(|l| l.parse().expect("Failed to parse tile"))
.collect()
}
fn follow_instructions(instructions: &[Tile]) -> HashMap<TileCoord, bool> {
// False == white
// True == black
// Default == white
let mut tiles: HashMap<TileCoord, bool> = HashMap::new();
instructions.iter().for_each(|t| {
let v = tiles.entry(t.coord()).or_insert(false);
*v = !*v;
});
tiles
}
#[aoc(day24, part1)]
fn solution1(instructions: &[Tile]) -> usize {
let tiles = follow_instructions(instructions);
count_black(&tiles)
}
const NEIGHBOR_OFFSETS: [(isize, isize, isize); 6] = [
(-1, 1, 0),
(1, -1, 0),
(-1, 0, 1),
(1, 0, -1),
(0, -1, 1),
(0, 1, -1),
];
fn count_neighbors(coord: &TileCoord, tiles: &HashMap<TileCoord, bool>) -> usize {
let (x, y, z) = coord.0;
NEIGHBOR_OFFSETS
.iter()
.filter(|(x_o, y_o, z_o)| {
*tiles
.get(&TileCoord((x + x_o, y + y_o, z + z_o)))
.unwrap_or(&false)
})
.count()
}
fn count_black(tiles: &HashMap<TileCoord, bool>) -> usize {
tiles.values().filter(|v| **v).count()
}
fn step(tiles: HashMap<TileCoord, bool>) -> HashMap<TileCoord, bool> {
let mut output = HashMap::new();
tiles
.iter()
.filter_map(|(k, v)| if *v { Some(k) } else { None })
.for_each(|coord| {
match count_neighbors(coord, &tiles) {
1 | 2 => {
// Leave black
output.insert(*coord, true);
}
_ => {
// 0 or >=2, default is white, so don't set anything in new map.
}
};
let (x, y, z) = coord.0;
// TODO search white neighbors.
NEIGHBOR_OFFSETS.iter().for_each(|(x_o, y_o, z_o)| {
let coord = TileCoord((x + x_o, y + y_o, z + z_o));
if *tiles.get(&coord).unwrap_or(&false) {
// Black, we can skip
return;
}
if count_neighbors(&coord, &tiles) == 2 {
output.insert(coord, true);
}
});
});
output
}
#[aoc(day24, part2)]
fn solution2(instructions: &[Tile]) -> usize {
let tiles = follow_instructions(instructions);
let tiles = (0..100).fold(tiles, |tiles, _| step(tiles));
count_black(&tiles)
}
#[cfg(test)]
mod tests {
use super::*;
const INPUT: &'static str = r#"
sesenwnenenewseeswwswswwnenewsewsw
neeenesenwnwwswnenewnwwsewnenwseswesw
seswneswswsenwwnwse
nwnwneseeswswnenewneswwnewseswneseene
swweswneswnenwsewnwneneseenw
eesenwseswswnenwswnwnwsewwnwsene
sewnenenenesenwsewnenwwwse
wenwwweseeeweswwwnwwe
wsweesenenewnwwnwsenewsenwwsesesenwne
neeswseenwwswnwswswnw
nenwswwsewswnenenewsenwsenwnesesenew
enewnwewneswsewnwswenweswnenwsenwsw
sweneswneswneneenwnewenewwneswswnese
swwesenesewenwneswnwwneseswwne
enesenwswwswneneswsenwnewswseenwsese
wnwnesenesenenwwnenwsewesewsesesew
nenewswnwewswnenesenwnesewesw
eneswnwswnwsenenwnwnwwseeswneewsenese
neswnwewnwnwseenwseesewsenwsweewe
wseweeenwnesenwwwswnew
"#;
#[test]
fn tile() {
use Direction::*;
assert_eq!(
"esenee".parse::<Tile>().expect("failed to parse tile"),
Tile {
directions: vec![East, SouthEast, NorthEast, East]
}
);
}
#[test]
fn part1() {
assert_eq!(solution1(&parse(INPUT)), 10);
}
#[test]
fn test_step() {
let instructions = parse(INPUT);
let tiles = follow_instructions(&instructions);
let wants = vec![15, 12, 25, 14, 23, 28, 41, 37, 49, 37];
wants
.iter()
.enumerate()
.fold(tiles, |mut tiles, (i, want)| {
tiles = step(tiles);
assert_eq!(count_black(&tiles), *want, "step {}", i);
tiles
});
}
#[test]
fn part2() {
assert_eq!(solution2(&parse(INPUT)), 2208);
}
}

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//! --- Day 25: Combo Breaker ---
//! You finally reach the check-in desk. Unfortunately, their registration systems are currently offline, and they cannot check you in. Noticing the look on your face, they quickly add that tech support is already on the way! They even created all the room keys this morning; you can take yours now and give them your room deposit once the registration system comes back online.
//!
//! The room key is a small RFID card. Your room is on the 25th floor and the elevators are also temporarily out of service, so it takes what little energy you have left to even climb the stairs and navigate the halls. You finally reach the door to your room, swipe your card, and - beep - the light turns red.
//!
//! Examining the card more closely, you discover a phone number for tech support.
//!
//! "Hello! How can we help you today?" You explain the situation.
//!
//! "Well, it sounds like the card isn't sending the right command to unlock the door. If you go back to the check-in desk, surely someone there can reset it for you." Still catching your breath, you describe the status of the elevator and the exact number of stairs you just had to climb.
//!
//! "I see! Well, your only other option would be to reverse-engineer the cryptographic handshake the card does with the door and then inject your own commands into the data stream, but that's definitely impossible." You thank them for their time.
//!
//! Unfortunately for the door, you know a thing or two about cryptographic handshakes.
//!
//! The handshake used by the card and the door involves an operation that transforms a subject number. To transform a subject number, start with the value 1. Then, a number of times called the loop size, perform the following steps:
//!
//! Set the value to itself multiplied by the subject number.
//! Set the value to the remainder after dividing the value by 20201227.
//! The card always uses a specific, secret loop size when it transforms a subject number. The door always uses a different, secret loop size.
//!
//! The cryptographic handshake works like this:
//!
//! The card transforms the subject number of 7 according to the card's secret loop size. The result is called the card's public key.
//! The door transforms the subject number of 7 according to the door's secret loop size. The result is called the door's public key.
//! The card and door use the wireless RFID signal to transmit the two public keys (your puzzle input) to the other device. Now, the card has the door's public key, and the door has the card's public key. Because you can eavesdrop on the signal, you have both public keys, but neither device's loop size.
//! The card transforms the subject number of the door's public key according to the card's loop size. The result is the encryption key.
//! The door transforms the subject number of the card's public key according to the door's loop size. The result is the same encryption key as the card calculated.
//! If you can use the two public keys to determine each device's loop size, you will have enough information to calculate the secret encryption key that the card and door use to communicate; this would let you send the unlock command directly to the door!
//!
//! For example, suppose you know that the card's public key is 5764801. With a little trial and error, you can work out that the card's loop size must be 8, because transforming the initial subject number of 7 with a loop size of 8 produces 5764801.
//!
//! Then, suppose you know that the door's public key is 17807724. By the same process, you can determine that the door's loop size is 11, because transforming the initial subject number of 7 with a loop size of 11 produces 17807724.
//!
//! At this point, you can use either device's loop size with the other device's public key to calculate the encryption key. Transforming the subject number of 17807724 (the door's public key) with a loop size of 8 (the card's loop size) produces the encryption key, 14897079. (Transforming the subject number of 5764801 (the card's public key) with a loop size of 11 (the door's loop size) produces the same encryption key: 14897079.)
//!
//! What encryption key is the handshake trying to establish?
//! --- Part Two ---
//! The light turns green and the door unlocks. As you collapse onto the bed in your room, your pager goes off!
//!
//! "It's an emergency!" the Elf calling you explains. "The soft serve machine in the cafeteria on sub-basement 7 just failed and you're the only one that knows how to fix it! We've already dispatched a reindeer to your location to pick you up."
//!
//! You hear the sound of hooves landing on your balcony.
//!
//! The reindeer carefully explores the contents of your room while you figure out how you're going to pay the 50 stars you owe the resort before you leave. Noticing that you look concerned, the reindeer wanders over to you; you see that it's carrying a small pouch.
//!
//! "Sorry for the trouble," a note in the pouch reads. Sitting at the bottom of the pouch is a gold coin with a little picture of a starfish on it.
//!
//! Looks like you only needed 49 stars after all.
//!
//! You don't have enough stars to pay the deposit, though. You need 2 more.
use aoc_runner_derive::aoc;
const MOD: usize = 20201227;
const SUBJECT_NUM: usize = 7;
// Returns loop size for given initial state.
fn solve(subject: usize, pk: usize) -> usize {
let mut acc = subject;
(0..)
.position(|_| {
acc = (acc * subject) % MOD;
acc == pk
})
.unwrap()
+ 1
}
fn find_encryption_key(pk0: usize, pk1: usize, subject: usize) -> usize {
//let l0 = solve(subject, pk0);
let l1 = solve(subject, pk1);
//(0..l0).fold(pk1, |acc, _| (acc * pk1) % MOD);
(0..l1).fold(pk0, |acc, _| (acc * pk0) % MOD)
}
#[aoc(day25, part1)]
fn solution1(input: &str) -> usize {
let pks: Vec<usize> = input
.split('\n')
.map(|l| l.parse::<usize>().expect("couldn't parse public key"))
.collect();
find_encryption_key(pks[0], pks[1], SUBJECT_NUM)
}
#[cfg(test)]
mod tests {
use super::*;
const CARD_PUBKEY: usize = 5764801;
const DOOR_PUBKEY: usize = 17807724;
#[test]
fn loop_solver() {
// Puzzle gives input in 1's based numbering.
assert_eq!(solve(SUBJECT_NUM, CARD_PUBKEY), 8 - 1);
assert_eq!(solve(SUBJECT_NUM, DOOR_PUBKEY), 11 - 1);
}
#[test]
fn enc_solver() {
assert_eq!(
find_encryption_key(CARD_PUBKEY, DOOR_PUBKEY, SUBJECT_NUM),
14897079
);
}
#[test]
fn part1() {
assert_eq!(
solution1(&format!("{}\n{}", CARD_PUBKEY, DOOR_PUBKEY)),
14897079
)
}
}

365
2020/src/day4.rs Normal file
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//! --- Day 4: Passport Processing ---
//! You arrive at the airport only to realize that you grabbed your North Pole Credentials instead of your passport. While these documents are extremely similar, North Pole Credentials aren't issued by a country and therefore aren't actually valid documentation for travel in most of the world.
//!
//! It seems like you're not the only one having problems, though; a very long line has formed for the automatic passport scanners, and the delay could upset your travel itinerary.
//!
//! Due to some questionable network security, you realize you might be able to solve both of these problems at the same time.
//!
//! The automatic passport scanners are slow because they're having trouble detecting which passports have all required fields. The expected fields are as follows:
//!
//! byr (Birth Year)
//! iyr (Issue Year)
//! eyr (Expiration Year)
//! hgt (Height)
//! hcl (Hair Color)
//! ecl (Eye Color)
//! pid (Passport ID)
//! cid (Country ID)
//! Passport data is validated in batch files (your puzzle input). Each passport is represented as a sequence of key:value pairs separated by spaces or newlines. Passports are separated by blank lines.
//!
//! Here is an example batch file containing four passports:
//!
//! ecl:gry pid:860033327 eyr:2020 hcl:#fffffd
//! byr:1937 iyr:2017 cid:147 hgt:183cm
//!
//! iyr:2013 ecl:amb cid:350 eyr:2023 pid:028048884
//! hcl:#cfa07d byr:1929
//!
//! hcl:#ae17e1 iyr:2013
//! eyr:2024
//! ecl:brn pid:760753108 byr:1931
//! hgt:179cm
//!
//! hcl:#cfa07d eyr:2025 pid:166559648
//! iyr:2011 ecl:brn hgt:59in
//! The first passport is valid - all eight fields are present. The second passport is invalid - it is missing hgt (the Height field).
//!
//! The third passport is interesting; the only missing field is cid, so it looks like data from North Pole Credentials, not a passport at all! Surely, nobody would mind if you made the system temporarily ignore missing cid fields. Treat this "passport" as valid.
//!
//! The fourth passport is missing two fields, cid and byr. Missing cid is fine, but missing any other field is not, so this passport is invalid.
//!
//! According to the above rules, your improved system would report 2 valid passports.
//!
//! Count the number of valid passports - those that have all required fields. Treat cid as optional. In your batch file, how many passports are valid?
//!
//! --- Part Two ---
//! The line is moving more quickly now, but you overhear airport security talking about how passports with invalid data are getting through. Better add some data validation, quick!
//!
//! You can continue to ignore the cid field, but each other field has strict rules about what values are valid for automatic validation:
//!
//! byr (Birth Year) - four digits; at least 1920 and at most 2002.
//! iyr (Issue Year) - four digits; at least 2010 and at most 2020.
//! eyr (Expiration Year) - four digits; at least 2020 and at most 2030.
//! hgt (Height) - a number followed by either cm or in:
//! If cm, the number must be at least 150 and at most 193.
//! If in, the number must be at least 59 and at most 76.
//! hcl (Hair Color) - a # followed by exactly six characters 0-9 or a-f.
//! ecl (Eye Color) - exactly one of: amb blu brn gry grn hzl oth.
//! pid (Passport ID) - a nine-digit number, including leading zeroes.
//! cid (Country ID) - ignored, missing or not.
//! Your job is to count the passports where all required fields are both present and valid according to the above rules. Here are some example values:
//!
//! byr valid: 2002
//! byr invalid: 2003
//!
//! hgt valid: 60in
//! hgt valid: 190cm
//! hgt invalid: 190in
//! hgt invalid: 190
//!
//! hcl valid: #123abc
//! hcl invalid: #123abz
//! hcl invalid: 123abc
//!
//! ecl valid: brn
//! ecl invalid: wat
//!
//! pid valid: 000000001
//! pid invalid: 0123456789
//! Here are some invalid passports:
//!
//! eyr:1972 cid:100
//! hcl:#18171d ecl:amb hgt:170 pid:186cm iyr:2018 byr:1926
//!
//! iyr:2019
//! hcl:#602927 eyr:1967 hgt:170cm
//! ecl:grn pid:012533040 byr:1946
//!
//! hcl:dab227 iyr:2012
//! ecl:brn hgt:182cm pid:021572410 eyr:2020 byr:1992 cid:277
//!
//! hgt:59cm ecl:zzz
//! eyr:2038 hcl:74454a iyr:2023
//! pid:3556412378 byr:2007
//! Here are some valid passports:
//!
//! pid:087499704 hgt:74in ecl:grn iyr:2012 eyr:2030 byr:1980
//! hcl:#623a2f
//!
//! eyr:2029 ecl:blu cid:129 byr:1989
//! iyr:2014 pid:896056539 hcl:#a97842 hgt:165cm
//!
//! hcl:#888785
//! hgt:164cm byr:2001 iyr:2015 cid:88
//! pid:545766238 ecl:hzl
//! eyr:2022
//!
//! iyr:2010 hgt:158cm hcl:#b6652a ecl:blu byr:1944 eyr:2021 pid:093154719
//! Count the number of valid passports - those that have all required fields and valid values. Continue to treat cid as optional. In your batch file, how many passports are valid?
use std::str::FromStr;
use aoc_runner_derive::{aoc, aoc_generator};
#[derive(Debug, Default, PartialEq)]
struct Passport {
// Birth Year
byr: Option<String>,
// Issue Year
iyr: Option<String>,
// Expiration Year
eyr: Option<String>,
// Height
hgt: Option<String>,
// Hair Color
hcl: Option<String>,
// Eye Color
ecl: Option<String>,
// Passport ID
pid: Option<String>,
// Country ID
cid: Option<String>,
}
fn valid_num(s: &Option<String>, min: u32, max: u32) -> bool {
match s {
Some(yr) => match yr.parse() {
Ok(n) => min <= n && n <= max,
Err(_) => false,
},
None => false,
}
}
fn valid_height(s: &Option<String>) -> bool {
if let Some(h) = s {
if h.ends_with("cm") {
return valid_num(&Some(h[..h.len() - 2].to_string()), 150, 193);
};
if h.ends_with("in") {
return valid_num(&Some(h[..h.len() - 2].to_string()), 59, 76);
};
}
false
}
fn valid_hair_color(s: &Option<String>) -> bool {
if let Some(h) = s {
let chars: Vec<_> = h.chars().collect();
if chars.len() != 7 {
return false;
}
for c in &chars[1..] {
if &'0' <= c && c <= &'f' {
continue;
}
}
return true;
}
false
}
fn valid_eye_color(s: &Option<String>) -> bool {
if let Some(c) = s {
return match c.as_str() {
"amb" | "blu" | "brn" | "gry" | "grn" | "hzl" | "oth" => true,
_ => false,
};
}
false
}
fn valid_passport_id(s: &Option<String>) -> bool {
if let Some(pid) = s {
if pid.len() != 9 {
return false;
}
for c in pid.chars() {
if '0' <= c && c <= '9' {
continue;
}
}
return true;
}
false
}
impl Passport {
fn is_valid_part1(&self) -> bool {
self.byr.is_some()
&& self.iyr.is_some()
&& self.eyr.is_some()
&& self.hgt.is_some()
&& self.hcl.is_some()
&& self.ecl.is_some()
&& self.pid.is_some()
}
fn is_valid_part2(&self) -> bool {
valid_num(&self.byr, 1920, 2002)
&& valid_num(&self.iyr, 2010, 2020)
&& valid_num(&self.eyr, 2020, 2030)
&& valid_height(&self.hgt)
&& valid_hair_color(&self.hcl)
&& valid_eye_color(&self.ecl)
&& valid_passport_id(&self.pid)
}
}
impl FromStr for Passport {
type Err = ();
fn from_str(input: &str) -> Result<Passport, ()> {
let mut p = Passport::default();
input
.replace('\n', " ")
.split(' ')
.filter(|p| !p.is_empty())
.for_each(|part| {
let (k, v) = part.split_at(part.find(":").unwrap());
match k {
"byr" => p.byr = Some(v[1..].to_string()),
"iyr" => p.iyr = Some(v[1..].to_string()),
"eyr" => p.eyr = Some(v[1..].to_string()),
"hgt" => p.hgt = Some(v[1..].to_string()),
"hcl" => p.hcl = Some(v[1..].to_string()),
"ecl" => p.ecl = Some(v[1..].to_string()),
"pid" => p.pid = Some(v[1..].to_string()),
"cid" => p.cid = Some(v[1..].to_string()),
s => panic!(format!("unknown key: '{}'", s)),
};
});
Ok(p)
}
}
#[aoc_generator(day4)]
fn parse(input: &str) -> Vec<Passport> {
input.split("\n\n").filter_map(|s| s.parse().ok()).collect()
}
#[aoc(day4, part1)]
fn solution_part1(passports: &[Passport]) -> usize {
passports.iter().filter(|p| p.is_valid_part1()).count()
}
#[aoc(day4, part2)]
fn solution_part2(passports: &[Passport]) -> usize {
passports.iter().filter(|p| p.is_valid_part2()).count()
}
#[cfg(test)]
mod tests {
use super::*;
const INPUT: &'static str = r##"ecl:gry pid:860033327 eyr:2020 hcl:#fffffd
byr:1937 iyr:2017 cid:147 hgt:183cm
iyr:2013 ecl:amb cid:350 eyr:2023 pid:028048884
hcl:#cfa07d byr:1929
hcl:#ae17e1 iyr:2013
eyr:2024
ecl:brn pid:760753108 byr:1931
hgt:179cm
hcl:#cfa07d eyr:2025 pid:166559648
iyr:2011 ecl:brn hgt:59in
"##;
#[test]
fn parse_passports() {
assert_eq!(
parse(INPUT),
vec![
Passport {
ecl: Some("gry".to_string()),
pid: Some("860033327".to_string()),
eyr: Some("2020".to_string()),
hcl: Some("#fffffd".to_string()),
byr: Some("1937".to_string()),
iyr: Some("2017".to_string()),
cid: Some("147".to_string()),
hgt: Some("183cm".to_string()),
},
Passport {
iyr: Some("2013".to_string()),
ecl: Some("amb".to_string()),
cid: Some("350".to_string()),
eyr: Some("2023".to_string()),
pid: Some("028048884".to_string()),
hcl: Some("#cfa07d".to_string()),
byr: Some("1929".to_string()),
..Default::default()
},
Passport {
hcl: Some("#ae17e1".to_string()),
iyr: Some("2013".to_string()),
eyr: Some("2024".to_string()),
ecl: Some("brn".to_string()),
pid: Some("760753108".to_string()),
byr: Some("1931".to_string()),
hgt: Some("179cm".to_string()),
..Default::default()
},
Passport {
hcl: Some("#cfa07d".to_string()),
eyr: Some("2025".to_string()),
pid: Some("166559648".to_string()),
iyr: Some("2011".to_string()),
ecl: Some("brn".to_string()),
hgt: Some("59in".to_string()),
..Default::default()
},
]
);
}
#[test]
fn invalid_part2() {
let input = r##"eyr:1972 cid:100
hcl:#18171d ecl:amb hgt:170 pid:186cm iyr:2018 byr:1926
iyr:2019
hcl:#602927 eyr:1967 hgt:170cm
ecl:grn pid:012533040 byr:1946
hcl:dab227 iyr:2012
ecl:brn hgt:182cm pid:021572410 eyr:2020 byr:1992 cid:277
hgt:59cm ecl:zzz
eyr:2038 hcl:74454a iyr:2023
pid:3556412378 byr:2007
"##;
assert_eq!(solution_part2(&parse(input)), 0);
}
#[test]
fn valid_part2() {
let input = r##"pid:087499704 hgt:74in ecl:grn iyr:2012 eyr:2030 byr:1980
hcl:#623a2f
eyr:2029 ecl:blu cid:129 byr:1989
iyr:2014 pid:896056539 hcl:#a97842 hgt:165cm
hcl:#888785
hgt:164cm byr:2001 iyr:2015 cid:88
pid:545766238 ecl:hzl
eyr:2022
iyr:2010 hgt:158cm hcl:#b6652a ecl:blu byr:1944 eyr:2021 pid:093154719
"##;
assert_eq!(solution_part2(&parse(input)), 4);
}
}

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//! --- Day 5: Binary Boarding ---
//! You board your plane only to discover a new problem: you dropped your boarding pass! You aren't sure which seat is yours, and all of the flight attendants are busy with the flood of people that suddenly made it through passport control.
//!
//! You write a quick program to use your phone's camera to scan all of the nearby boarding passes (your puzzle input); perhaps you can find your seat through process of elimination.
//!
//! Instead of zones or groups, this airline uses binary space partitioning to seat people. A seat might be specified like FBFBBFFRLR, where F means "front", B means "back", L means "left", and R means "right".
//!
//! The first 7 characters will either be F or B; these specify exactly one of the 128 rows on the plane (numbered 0 through 127). Each letter tells you which half of a region the given seat is in. Start with the whole list of rows; the first letter indicates whether the seat is in the front (0 through 63) or the back (64 through 127). The next letter indicates which half of that region the seat is in, and so on until you're left with exactly one row.
//!
//! For example, consider just the first seven characters of FBFBBFFRLR:
//!
//! Start by considering the whole range, rows 0 through 127.
//! F means to take the lower half, keeping rows 0 through 63.
//! B means to take the upper half, keeping rows 32 through 63.
//! F means to take the lower half, keeping rows 32 through 47.
//! B means to take the upper half, keeping rows 40 through 47.
//! B keeps rows 44 through 47.
//! F keeps rows 44 through 45.
//! The final F keeps the lower of the two, row 44.
//! The last three characters will be either L or R; these specify exactly one of the 8 columns of seats on the plane (numbered 0 through 7). The same process as above proceeds again, this time with only three steps. L means to keep the lower half, while R means to keep the upper half.
//!
//! For example, consider just the last 3 characters of FBFBBFFRLR:
//!
//! Start by considering the whole range, columns 0 through 7.
//! R means to take the upper half, keeping columns 4 through 7.
//! L means to take the lower half, keeping columns 4 through 5.
//! The final R keeps the upper of the two, column 5.
//! So, decoding FBFBBFFRLR reveals that it is the seat at row 44, column 5.
//!
//! Every seat also has a unique seat ID: multiply the row by 8, then add the column. In this example, the seat has ID 44 * 8 + 5 = 357.
//!
//! Here are some other boarding passes:
//!
//! BFFFBBFRRR: row 70, column 7, seat ID 567.
//! FFFBBBFRRR: row 14, column 7, seat ID 119.
//! BBFFBBFRLL: row 102, column 4, seat ID 820.
//! As a sanity check, look through your list of boarding passes. What is the highest seat ID on a boarding pass?
//!
//! --- Part Two ---
//! Ding! The "fasten seat belt" signs have turned on. Time to find your seat.
//!
//! It's a completely full flight, so your seat should be the only missing boarding pass in your list. However, there's a catch: some of the seats at the very front and back of the plane don't exist on this aircraft, so they'll be missing from your list as well.
//!
//! Your seat wasn't at the very front or back, though; the seats with IDs +1 and -1 from yours will be in your list.
//!
//! What is the ID of your seat?
use std::str::FromStr;
use aoc_runner_derive::{aoc, aoc_generator};
#[derive(Debug, PartialEq)]
struct Seat {
row: u32,
column: u32,
}
impl Seat {
fn id(&self) -> u32 {
self.row * 8 + self.column
}
}
impl FromStr for Seat {
type Err = ();
fn from_str(s: &str) -> Result<Self, Self::Err> {
let mut r_start = 0;
let mut r_size = 128 / 2;
let mut c_start = 0;
let mut c_size = 8 / 2;
s.chars().for_each(|c| match c {
'F' => r_size /= 2,
'B' => {
r_start += r_size;
r_size /= 2;
}
'L' => c_size /= 2,
'R' => {
c_start += c_size;
c_size /= 2;
}
c => panic!(format!("unexpected character '{}'", c)),
});
Ok(Seat {
row: r_start,
column: c_start,
})
}
}
#[aoc_generator(day5, part1, wathiede)]
#[aoc_generator(day5, part2, wathiede)]
fn parse(input: &str) -> Vec<Seat> {
input
.split('\n')
.map(str::parse)
.filter_map(Result::ok)
.collect()
}
#[aoc(day5, part1, wathiede)]
fn solution1(seats: &[Seat]) -> u32 {
seats.iter().map(|s| s.id()).max().unwrap()
}
#[aoc(day5, part1, glenng)]
fn solution1_glenng(input: &str) -> u32 {
input
.split('\n')
.map(|s| {
s.chars().fold(0, |s, c| match c {
'F' | 'L' => s << 1,
'B' | 'R' => s << 1 | 1,
_ => panic!(format!("unexpected character '{}'", c)),
})
})
.map(|s| {
let r = s >> 3;
let c = s & 0b111;
r * 8 + c
})
.max()
.unwrap()
}
#[aoc(day5, part2, wathiede)]
fn solution2(seats: &[Seat]) -> u32 {
let mut seat_ids: Vec<_> = seats.iter().map(|s| s.id()).collect();
seat_ids.sort();
let mut last_id = seat_ids[0];
for id in &seat_ids[1..] {
if id - last_id != 1 {
return id - 1;
}
last_id = *id;
}
panic!();
}
#[cfg(test)]
mod tests {
use super::*;
const INPUT: &'static str = "BFFFBBFRRR\nFFFBBBFRRR\nBBFFBBFRLL";
static WANT: &'static [Seat] = &[
Seat { row: 70, column: 7 },
Seat { row: 14, column: 7 },
Seat {
row: 102,
column: 4,
},
];
#[test]
fn parse_seats() {
assert_eq!(parse(INPUT), WANT);
}
#[test]
fn id() {
assert_eq!(
WANT.iter().map(|s| s.id()).collect::<Vec<u32>>(),
vec![567, 119, 820]
);
}
}

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//! --- Day 6: Custom Customs ---
//! As your flight approaches the regional airport where you'll switch to a much larger plane, customs declaration forms are distributed to the passengers.
//!
//! The form asks a series of 26 yes-or-no questions marked a through z. All you need to do is identify the questions for which anyone in your group answers "yes". Since your group is just you, this doesn't take very long.
//!
//! However, the person sitting next to you seems to be experiencing a language barrier and asks if you can help. For each of the people in their group, you write down the questions for which they answer "yes", one per line. For example:
//!
//! abcx
//! abcy
//! abcz
//! In this group, there are 6 questions to which anyone answered "yes": a, b, c, x, y, and z. (Duplicate answers to the same question don't count extra; each question counts at most once.)
//!
//! Another group asks for your help, then another, and eventually you've collected answers from every group on the plane (your puzzle input). Each group's answers are separated by a blank line, and within each group, each person's answers are on a single line. For example:
//!
//! abc
//!
//! a
//! b
//! c
//!
//! ab
//! ac
//!
//! a
//! a
//! a
//! a
//!
//! b
//! This list represents answers from five groups:
//!
//! The first group contains one person who answered "yes" to 3 questions: a, b, and c.
//! The second group contains three people; combined, they answered "yes" to 3 questions: a, b, and c.
//! The third group contains two people; combined, they answered "yes" to 3 questions: a, b, and c.
//! The fourth group contains four people; combined, they answered "yes" to only 1 question, a.
//! The last group contains one person who answered "yes" to only 1 question, b.
//! In this example, the sum of these counts is 3 + 3 + 3 + 1 + 1 = 11.
//!
//! For each group, count the number of questions to which anyone answered "yes". What is the sum of those counts?
//!
//! --- Part Two ---
//! As you finish the last group's customs declaration, you notice that you misread one word in the instructions:
//!
//! You don't need to identify the questions to which anyone answered "yes"; you need to identify the questions to which everyone answered "yes"!
//!
//! Using the same example as above:
//!
//! abc
//!
//! a
//! b
//! c
//!
//! ab
//! ac
//!
//! a
//! a
//! a
//! a
//!
//! b
//! This list represents answers from five groups:
//!
//! In the first group, everyone (all 1 person) answered "yes" to 3 questions: a, b, and c.
//! In the second group, there is no question to which everyone answered "yes".
//! In the third group, everyone answered yes to only 1 question, a. Since some people did not answer "yes" to b or c, they don't count.
//! In the fourth group, everyone answered yes to only 1 question, a.
//! In the fifth group, everyone (all 1 person) answered "yes" to 1 question, b.
//! In this example, the sum of these counts is 3 + 0 + 1 + 1 + 1 = 6.
//!
//! For each group, count the number of questions to which everyone answered "yes". What is the sum of those counts?
use std::collections::HashSet;
use aoc_runner_derive::aoc;
#[aoc(day6, part1)]
fn solution1(input: &str) -> usize {
input
.split("\n\n")
.map(|group| group.chars().filter(|c| c != &'\n').collect::<HashSet<_>>())
.map(|set| set.len())
.sum()
}
#[aoc(day6, part2)]
fn solution2(input: &str) -> usize {
input
.split("\n\n")
.map(|group| {
let sets = group
.split('\n')
.map(|p| p.chars().collect::<HashSet<_>>())
.collect::<Vec<_>>();
// Find letters common to all sets int this group.
sets.iter().fold(sets.first().unwrap().clone(), |acc, s| {
acc.intersection(s).cloned().collect()
})
})
.map(|set| set.len())
.sum()
}
#[aoc(day6, part2, faster)]
fn solution2_faster(input: &str) -> usize {
input
.split("\n\n")
.filter_map(|group| {
group.split('\n').fold(None, |acc: Option<HashSet<_>>, p| {
match acc {
None => {
// Add all the letters for the first set.
Some(p.chars().collect())
}
Some(acc) => {
// Remove from acc any letters not in p.
let tmp = Some(
p.chars()
.filter(|c| acc.contains(c))
.collect::<HashSet<_>>(),
);
tmp
}
}
})
})
.map(|set| set.len())
.sum()
}
#[cfg(test)]
mod tests {
use super::*;
const INPUT: &'static str = r#"abc
a
b
c
ab
ac
a
a
a
a
b"#;
#[test]
fn part1() {
assert_eq!(solution1(INPUT), 11);
}
#[test]
fn part2() {
assert_eq!(solution2(INPUT), 6);
}
}

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//! --- Day 7: Handy Haversacks ---
//! You land at the regional airport in time for your next flight. In fact, it looks like you'll even have time to grab some food: all flights are currently delayed due to issues in luggage processing.
//!
//! Due to recent aviation regulations, many rules (your puzzle input) are being enforced about bags and their contents; bags must be color-coded and must contain specific quantities of other color-coded bags. Apparently, nobody responsible for these regulations considered how long they would take to enforce!
//!
//! For example, consider the following rules:
//!
//! light red bags contain 1 bright white bag, 2 muted yellow bags.
//! dark orange bags contain 3 bright white bags, 4 muted yellow bags.
//! bright white bags contain 1 shiny gold bag.
//! muted yellow bags contain 2 shiny gold bags, 9 faded blue bags.
//! shiny gold bags contain 1 dark olive bag, 2 vibrant plum bags.
//! dark olive bags contain 3 faded blue bags, 4 dotted black bags.
//! vibrant plum bags contain 5 faded blue bags, 6 dotted black bags.
//! faded blue bags contain no other bags.
//! dotted black bags contain no other bags.
//! These rules specify the required contents for 9 bag types. In this example, every faded blue bag is empty, every vibrant plum bag contains 11 bags (5 faded blue and 6 dotted black), and so on.
//!
//! You have a shiny gold bag. If you wanted to carry it in at least one other bag, how many different bag colors would be valid for the outermost bag? (In other words: how many colors can, eventually, contain at least one shiny gold bag?)
//!
//! In the above rules, the following options would be available to you:
//!
//! A bright white bag, which can hold your shiny gold bag directly.
//! A muted yellow bag, which can hold your shiny gold bag directly, plus some other bags.
//! A dark orange bag, which can hold bright white and muted yellow bags, either of which could then hold your shiny gold bag.
//! A light red bag, which can hold bright white and muted yellow bags, either of which could then hold your shiny gold bag.
//! So, in this example, the number of bag colors that can eventually contain at least one shiny gold bag is 4.
//!
//! How many bag colors can eventually contain at least one shiny gold bag? (The list of rules is quite long; make sure you get all of it.)
//!
//!
//! --- Part Two ---
//! It's getting pretty expensive to fly these days - not because of ticket prices, but because of the ridiculous number of bags you need to buy!
//!
//! Consider again your shiny gold bag and the rules from the above example:
//!
//! faded blue bags contain 0 other bags.
//! dotted black bags contain 0 other bags.
//! vibrant plum bags contain 11 other bags: 5 faded blue bags and 6 dotted black bags.
//! dark olive bags contain 7 other bags: 3 faded blue bags and 4 dotted black bags.
//! So, a single shiny gold bag must contain 1 dark olive bag (and the 7 bags within it) plus 2 vibrant plum bags (and the 11 bags within each of those): 1 + 1*7 + 2 + 2*11 = 32 bags!
//!
//! Of course, the actual rules have a small chance of going several levels deeper than this example; be sure to count all of the bags, even if the nesting becomes topologically impractical!
//!
//! Here's another example:
//!
//! shiny gold bags contain 2 dark red bags.
//! dark red bags contain 2 dark orange bags.
//! dark orange bags contain 2 dark yellow bags.
//! dark yellow bags contain 2 dark green bags.
//! dark green bags contain 2 dark blue bags.
//! dark blue bags contain 2 dark violet bags.
//! dark violet bags contain no other bags.
//! In this example, a single shiny gold bag must contain 126 other bags.
//!
//! How many individual bags are required inside your single shiny gold bag?
use std::collections::HashMap;
use std::collections::HashSet;
use aoc_runner_derive::{aoc, aoc_generator};
type Color = String;
#[derive(Debug, Default)]
struct Node {
color: Color,
parents: Vec<Color>,
children: Vec<(usize, Color)>,
}
#[derive(Debug, Default)]
struct Graph {
nodes: HashMap<Color, Node>,
}
impl Graph {
fn add_node(&mut self, line: &str) {
let parts: Vec<_> = line.split(" bags contain ").collect();
match parts.len() {
0 | 1 => panic!(format!("line '{}' fails assumptions", line)),
_ => {
let parent_color = parts[0].to_string();
let mut children = Vec::new();
if parts[1] != "no other bags." {
for chunk in parts[1].split(' ').collect::<Vec<_>>().chunks(4) {
// [0] quantity
// [1] color1
// [2] color2
// [3] bag/bags[,.]
let color = format!("{} {}", chunk[1], chunk[2]);
let c = self.nodes.entry(color.clone()).or_insert(Node {
color: color.clone(),
parents: Vec::new(),
children: Vec::new(),
});
c.parents.push(parent_color.clone());
let count = chunk[0].parse::<usize>().expect("couldn't parse bag count");
children.push((count, color.clone()));
}
}
// Get or create this parent color
let mut p = self.nodes.entry(parent_color.clone()).or_insert(Node {
color: parent_color.clone(),
parents: Vec::new(),
children: Vec::new(),
});
p.children = children;
}
}
}
fn top_level(&self, color: &Color) -> HashSet<Color> {
let n = self.nodes.get(color).expect("Couldn't find node");
self.top_level_rec(n.parents.clone())
}
fn top_level_rec(&self, parents: Vec<Color>) -> HashSet<Color> {
if parents.is_empty() {
return HashSet::new();
}
let mut set = HashSet::new();
set.extend(parents.clone());
parents.iter().for_each(|color| {
let n = self.nodes.get(color).expect("Couldn't find node");
set.extend(self.top_level_rec(n.parents.clone()));
});
set
}
fn bag_count(&self, color: &Color) -> usize {
let n = self.nodes.get(color).expect("Couldn't find node");
if n.children.is_empty() {
// No children.
return 0;
} else {
// Number of children bags and multiple the number of child bags by the transitive
// closure of the child's sub bags.
n.children
.iter()
// Return the number of sub
.map(|(cnt, color)| cnt + cnt * self.bag_count(color))
.sum()
}
}
}
#[aoc_generator(day7)]
fn parse(input: &str) -> Graph {
let mut g = Graph::default();
input.split('\n').for_each(|line| g.add_node(line));
g
}
#[aoc(day7, part1)]
fn solution1(g: &Graph) -> usize {
let answer = g.top_level(&"shiny gold".to_string()).len();
/*
// Ensure we don't break part 1 while working on part 2.
let correct_answer = 222;
assert_eq!(answer, correct_answer);
*/
answer
}
#[aoc(day7, part2)]
fn solution2(g: &Graph) -> usize {
g.bag_count(&"shiny gold".to_string())
}
#[cfg(test)]
mod tests {
use super::*;
const INPUT1: &'static str = r#"light red bags contain 1 bright white bag, 2 muted yellow bags.
dark orange bags contain 3 bright white bags, 4 muted yellow bags.
bright white bags contain 1 shiny gold bag.
muted yellow bags contain 2 shiny gold bags, 9 faded blue bags.
shiny gold bags contain 1 dark olive bag, 2 vibrant plum bags.
dark olive bags contain 3 faded blue bags, 4 dotted black bags.
vibrant plum bags contain 5 faded blue bags, 6 dotted black bags.
faded blue bags contain no other bags.
dotted black bags contain no other bags."#;
#[test]
fn part1() {
assert_eq!(solution1(&parse(INPUT1)), 4);
}
const INPUT2: &'static str = r#"shiny gold bags contain 2 dark red bags.
dark red bags contain 2 dark orange bags.
dark orange bags contain 2 dark yellow bags.
dark yellow bags contain 2 dark green bags.
dark green bags contain 2 dark blue bags.
dark blue bags contain 2 dark violet bags.
dark violet bags contain no other bags."#;
#[test]
fn part2() {
assert_eq!(solution2(&parse(INPUT1)), 32);
assert_eq!(solution2(&parse(INPUT2)), 126);
}
}

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//! --- Day 8: Handheld Halting ---
//! Your flight to the major airline hub reaches cruising altitude without incident. While you consider checking the in-flight menu for one of those drinks that come with a little umbrella, you are interrupted by the kid sitting next to you.
//!
//! Their handheld game console won't turn on! They ask if you can take a look.
//!
//! You narrow the problem down to a strange infinite loop in the boot code (your puzzle input) of the device. You should be able to fix it, but first you need to be able to run the code in isolation.
//!
//! The boot code is represented as a text file with one instruction per line of text. Each instruction consists of an operation (acc, jmp, or nop) and an argument (a signed number like +4 or -20).
//!
//! acc increases or decreases a single global value called the accumulator by the value given in the argument. For example, acc +7 would increase the accumulator by 7. The accumulator starts at 0. After an acc instruction, the instruction immediately below it is executed next.
//! jmp jumps to a new instruction relative to itself. The next instruction to execute is found using the argument as an offset from the jmp instruction; for example, jmp +2 would skip the next instruction, jmp +1 would continue to the instruction immediately below it, and jmp -20 would cause the instruction 20 lines above to be executed next.
//! nop stands for No OPeration - it does nothing. The instruction immediately below it is executed next.
//! For example, consider the following program:
//!
//! nop +0
//! acc +1
//! jmp +4
//! acc +3
//! jmp -3
//! acc -99
//! acc +1
//! jmp -4
//! acc +6
//! These instructions are visited in this order:
//!
//! nop +0 | 1
//! acc +1 | 2, 8(!)
//! jmp +4 | 3
//! acc +3 | 6
//! jmp -3 | 7
//! acc -99 |
//! acc +1 | 4
//! jmp -4 | 5
//! acc +6 |
//! First, the nop +0 does nothing. Then, the accumulator is increased from 0 to 1 (acc +1) and jmp +4 sets the next instruction to the other acc +1 near the bottom. After it increases the accumulator from 1 to 2, jmp -4 executes, setting the next instruction to the only acc +3. It sets the accumulator to 5, and jmp -3 causes the program to continue back at the first acc +1.
//!
//! This is an infinite loop: with this sequence of jumps, the program will run forever. The moment the program tries to run any instruction a second time, you know it will never terminate.
//!
//! Immediately before the program would run an instruction a second time, the value in the accumulator is 5.
//!
//! Run your copy of the boot code. Immediately before any instruction is executed a second time, what value is in the accumulator?
//!
//! --- Part Two ---
//! After some careful analysis, you believe that exactly one instruction is corrupted.
//!
//! Somewhere in the program, either a jmp is supposed to be a nop, or a nop is supposed to be a jmp. (No acc instructions were harmed in the corruption of this boot code.)
//!
//! The program is supposed to terminate by attempting to execute an instruction immediately after the last instruction in the file. By changing exactly one jmp or nop, you can repair the boot code and make it terminate correctly.
//!
//! For example, consider the same program from above:
//!
//! nop +0
//! acc +1
//! jmp +4
//! acc +3
//! jmp -3
//! acc -99
//! acc +1
//! jmp -4
//! acc +6
//! If you change the first instruction from nop +0 to jmp +0, it would create a single-instruction infinite loop, never leaving that instruction. If you change almost any of the jmp instructions, the program will still eventually find another jmp instruction and loop forever.
//!
//! However, if you change the second-to-last instruction (from jmp -4 to nop -4), the program terminates! The instructions are visited in this order:
//!
//! nop +0 | 1
//! acc +1 | 2
//! jmp +4 | 3
//! acc +3 |
//! jmp -3 |
//! acc -99 |
//! acc +1 | 4
//! nop -4 | 5
//! acc +6 | 6
//! After the last instruction (acc +6), the program terminates by attempting to run the instruction below the last instruction in the file. With this change, after the program terminates, the accumulator contains the value 8 (acc +1, acc +1, acc +6).
//!
//! Fix the program so that it terminates normally by changing exactly one jmp (to nop) or nop (to jmp). What is the value of the accumulator after the program terminates?
use std::str::FromStr;
use aoc_runner_derive::aoc;
#[derive(Copy, Clone, Debug, PartialEq)]
enum Instruction {
Nop(i32),
Acc(i32),
Jmp(i32),
}
impl FromStr for Instruction {
type Err = ();
fn from_str(s: &str) -> Result<Self, Self::Err> {
let mut it = s.split(' ');
Ok(match it.next() {
Some("nop") => Instruction::Nop(it.next().ok_or(())?.parse().map_err(|_| ())?),
Some("acc") => Instruction::Acc(it.next().ok_or(())?.parse().map_err(|_| ())?),
Some("jmp") => Instruction::Jmp(it.next().ok_or(())?.parse().map_err(|_| ())?),
Some(c) => panic!(format!("unknown instruction '{}'", c)),
None => panic!(format!("no space in '{}'", s)),
})
}
}
#[derive(Default, Debug, PartialEq)]
struct Program {
ip: usize,
acc: i32,
intrs: Vec<Instruction>,
executed: Vec<bool>,
}
impl Program {
fn reset(&mut self) {
self.ip = 0;
self.acc = 0;
self.executed.iter_mut().for_each(|i| *i = false);
}
fn debug(&mut self, bad_ip: usize) -> Option<i32> {
loop {
if self.executed[self.ip] {
return None;
}
self.executed[self.ip] = true;
let intr = self.intrs[self.ip];
let intr = if self.ip == bad_ip {
match intr {
// Swap instruction as this is a possible bug location.
Instruction::Nop(op) => Instruction::Jmp(op),
Instruction::Jmp(op) => Instruction::Nop(op),
// Acc can't be buggy per the instructions.
Instruction::Acc(_) => return None,
}
} else {
intr
};
match intr {
Instruction::Nop(_) => self.ip += 1,
Instruction::Acc(op) => {
self.acc += op;
self.ip += 1;
}
Instruction::Jmp(op) => self.ip = (self.ip as i32 + op) as usize,
}
if self.ip >= self.intrs.len() {
return Some(self.acc);
}
}
}
fn run(&mut self) -> i32 {
loop {
if self.executed[self.ip] {
return self.acc;
}
self.executed[self.ip] = true;
match self.intrs[self.ip] {
Instruction::Nop(_) => self.ip += 1,
Instruction::Acc(op) => {
self.acc += op;
self.ip += 1;
}
Instruction::Jmp(op) => self.ip = (self.ip as i32 + op) as usize,
}
}
}
}
impl FromStr for Program {
type Err = ();
fn from_str(s: &str) -> Result<Self, Self::Err> {
let intrs: Vec<_> = s.split('\n').filter_map(|i| i.parse().ok()).collect();
let executed = vec![false; intrs.len()];
Ok(Program {
ip: 0,
acc: 0,
intrs,
executed,
})
}
}
#[aoc(day8, part1)]
fn solution1(input: &str) -> i32 {
let mut p: Program = input.parse().expect("Failed to parse Program");
p.run()
}
#[aoc(day8, part2)]
fn solution2(input: &str) -> i32 {
let mut p: Program = input.parse().expect("Failed to parse Program");
for bad_ip in 0..p.intrs.len() {
if let Some(acc) = p.debug(bad_ip) {
return acc;
}
p.reset();
}
panic!("no bugfix found")
}
#[cfg(test)]
mod tests {
use super::*;
const INPUT1: &'static str = r#"nop +0
acc +1
jmp +4
acc +3
jmp -3
acc -99
acc +1
jmp -4
acc +6"#;
#[test]
fn make() {
assert_eq!(
INPUT1.parse::<Program>().expect("Failed to parse input"),
Program {
ip: 0,
acc: 0,
intrs: vec![
Instruction::Nop(0),
Instruction::Acc(1),
Instruction::Jmp(4),
Instruction::Acc(3),
Instruction::Jmp(-3),
Instruction::Acc(-99),
Instruction::Acc(1),
Instruction::Jmp(-4),
Instruction::Acc(6),
],
executed: vec![false; 9],
}
);
}
#[test]
fn part1() {
assert_eq!(solution1(&INPUT1), 5);
}
#[test]
fn part2() {
assert_eq!(solution2(&INPUT1), 8);
}
}

208
2020/src/day9.rs Normal file
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@ -0,0 +1,208 @@
//! --- Day 9: Encoding Error ---
//! With your neighbor happily enjoying their video game, you turn your attention to an open data port on the little screen in the seat in front of you.
//!
//! Though the port is non-standard, you manage to connect it to your computer through the clever use of several paperclips. Upon connection, the port outputs a series of numbers (your puzzle input).
//!
//! The data appears to be encrypted with the eXchange-Masking Addition System (XMAS) which, conveniently for you, is an old cypher with an important weakness.
//!
//! XMAS starts by transmitting a preamble of 25 numbers. After that, each number you receive should be the sum of any two of the 25 immediately previous numbers. The two numbers will have different values, and there might be more than one such pair.
//!
//! For example, suppose your preamble consists of the numbers 1 through 25 in a random order. To be valid, the next number must be the sum of two of those numbers:
//!
//! 26 would be a valid next number, as it could be 1 plus 25 (or many other pairs, like 2 and 24).
//! 49 would be a valid next number, as it is the sum of 24 and 25.
//! 100 would not be valid; no two of the previous 25 numbers sum to 100.
//! 50 would also not be valid; although 25 appears in the previous 25 numbers, the two numbers in the pair must be different.
//! Suppose the 26th number is 45, and the first number (no longer an option, as it is more than 25 numbers ago) was 20. Now, for the next number to be valid, there needs to be some pair of numbers among 1-19, 21-25, or 45 that add up to it:
//!
//! 26 would still be a valid next number, as 1 and 25 are still within the previous 25 numbers.
//! 65 would not be valid, as no two of the available numbers sum to it.
//! 64 and 66 would both be valid, as they are the result of 19+45 and 21+45 respectively.
//! Here is a larger example which only considers the previous 5 numbers (and has a preamble of length 5):
//!
//! 35
//! 20
//! 15
//! 25
//! 47
//! 40
//! 62
//! 55
//! 65
//! 95
//! 102
//! 117
//! 150
//! 182
//! 127
//! 219
//! 299
//! 277
//! 309
//! 576
//! In this example, after the 5-number preamble, almost every number is the sum of two of the previous 5 numbers; the only number that does not follow this rule is 127.
//!
//! The first step of attacking the weakness in the XMAS data is to find the first number in the list (after the preamble) which is not the sum of two of the 25 numbers before it. What is the first number that does not have this property?
//!
//! --- Part Two ---
//! The final step in breaking the XMAS encryption relies on the invalid number you just found: you must find a contiguous set of at least two numbers in your list which sum to the invalid number from step 1.
//!
//! Again consider the above example:
//!
//! 35
//! 20
//! 15
//! 25
//! 47
//! 40
//! 62
//! 55
//! 65
//! 95
//! 102
//! 117
//! 150
//! 182
//! 127
//! 219
//! 299
//! 277
//! 309
//! 576
//! In this list, adding up all of the numbers from 15 through 40 produces the invalid number from step 1, 127. (Of course, the contiguous set of numbers in your actual list might be much longer.)
//!
//! To find the encryption weakness, add together the smallest and largest number in this contiguous range; in this example, these are 15 and 47, producing 62.
//!
//! What is the encryption weakness in your XMAS-encrypted list of numbers?
use aoc_runner_derive::{aoc, aoc_generator};
#[aoc_generator(day9)]
fn parse(input: &str) -> Vec<usize> {
input
.split('\n')
.map(|s| s.parse::<usize>().unwrap())
.collect::<Vec<_>>()
}
fn solution1_impl(nums: &[usize], win_size: usize) -> usize {
nums.windows(win_size + 1)
.skip_while(|chunk| {
let past = &chunk[..win_size];
let cur = chunk[win_size];
for p in past {
let diff = if cur > *p { cur - p } else { p - cur };
if past.contains(&diff) {
return true;
}
}
false
})
.find_map(|chunk| Some(chunk[win_size]))
.unwrap()
}
fn solution1_impl_sorted(nums: &[usize], win_size: usize) -> usize {
nums.windows(win_size + 1)
.skip_while(|chunk| {
let mut past = (&chunk[..win_size]).clone().to_owned();
past.sort_unstable();
let cur = chunk[win_size];
for p in &past {
let diff = if cur > *p { cur - p } else { p - cur };
if past.binary_search(&diff).is_ok() {
return true;
}
}
false
})
.find_map(|chunk| Some(chunk[win_size]))
.unwrap()
}
#[aoc(day9, part1)]
fn solution1(nums: &[usize]) -> usize {
solution1_impl(nums, 25)
}
#[aoc(day9, part1, sorted)]
fn solution1_sorted(nums: &[usize]) -> usize {
solution1_impl_sorted(nums, 25)
}
fn sum_min_max(low: usize, hi: usize, nums: &[usize]) -> usize {
let (min, max) = nums[low..hi]
.iter()
.fold((usize::MAX, 0), |(min, max), &n| {
(std::cmp::min(min, n), std::cmp::max(max, n))
});
min + max
}
// If contiguous numbers adding up to `sum` are found, the hi index (inclusive) is returned.
fn find_sum_at(low: usize, nums: &[usize], sum: usize) -> Option<usize> {
let mut p_sum = nums[low];
for hi in low + 1..nums.len() {
let n = nums[hi];
p_sum += n;
if p_sum == sum {
return Some(hi + 1);
}
if p_sum > sum {
return None;
}
}
unreachable!();
}
fn solution2_impl(nums: &[usize], win_size: usize) -> usize {
let sum = solution1_impl(nums, win_size);
for low in 0..nums.len() - 1 {
if let Some(hi) = find_sum_at(low, nums, sum) {
return sum_min_max(low, hi, nums);
}
}
unreachable!();
}
#[aoc(day9, part2)]
fn solution2(nums: &[usize]) -> usize {
solution2_impl(nums, 25)
}
#[cfg(test)]
mod tests {
use super::*;
const INPUT: &'static str = r#"35
20
15
25
47
40
62
55
65
95
102
117
150
182
127
219
299
277
309
576"#;
#[test]
fn part1() {
assert_eq!(solution1_impl(&parse(&INPUT), 5), 127);
}
#[test]
fn part2() {
assert_eq!(solution2_impl(&parse(&INPUT), 5), 62);
}
}

View File

@ -1,7 +1,39 @@
mod day1;
mod day2;
mod day3;
pub mod day1;
pub mod day10;
pub mod day11;
pub mod day12;
pub mod day13;
pub mod day14;
pub mod day15;
pub mod day16;
pub mod day17;
pub mod day18;
pub mod day19;
pub mod day2;
pub mod day20;
pub mod day21;
pub mod day22;
pub mod day23;
pub mod day24;
pub mod day25;
pub mod day3;
pub mod day4;
pub mod day5;
pub mod day6;
pub mod day7;
pub mod day8;
pub mod day9;
use aoc_runner_derive::aoc_lib;
#[macro_export]
macro_rules! debug_print{
($($arg:tt)*) => (#[cfg(debug_assertions)] print!($($arg)*));
}
#[macro_export]
macro_rules! debug_println {
($($arg:tt)*) => (#[cfg(debug_assertions)] println!($($arg)*));
}
aoc_lib! { year = 2020 }

5
2020/src/main.rs Normal file
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use advent2020;
use aoc_runner_derive::aoc_main;
aoc_main! { lib = advent2020 }

225
2021/Cargo.lock generated Normal file
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@ -0,0 +1,225 @@
# This file is automatically @generated by Cargo.
# It is not intended for manual editing.
version = 3
[[package]]
name = "advent"
version = "0.1.0"
dependencies = [
"anyhow",
"aoc-runner",
"aoc-runner-derive",
"pretty_assertions",
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]
[[package]]
name = "advent2021"
version = "0.1.0"
dependencies = [
"advent",
"ansi_term",
"anyhow",
"aoc-runner",
"aoc-runner-derive",
"pretty_assertions",
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15
2021/Cargo.toml Normal file
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@ -0,0 +1,15 @@
[package]
name = "advent2021"
version = "0.1.0"
edition = "2021"
# See more keys and their definitions at https://doc.rust-lang.org/cargo/reference/manifest.html
[dependencies]
ansi_term = "0.12.1"
anyhow = "1.0.45"
aoc-runner = "0.3.0"
aoc-runner-derive = "0.3.0"
pretty_assertions = "1.0.0"
thiserror = "1.0.30"
advent = { path = "../" }

2000
2021/input/2021/day1.txt Normal file

File diff suppressed because it is too large Load Diff

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2021/input/2021/day10.txt Normal file
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{<[[<<<[[{[[<<()()>>[([]<>){{}{}}]]]<(<{{}<>}{{}{}}><{<>[]}[{}{}]>)({(())}<[(){}][(){}]>)>}]<<<(<<{}
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<[(({[({<<[[[{<>{}}(<><>))<(<>[])[{}[]]>]<[([][])[(){}]]>]([<[()()](<>[])>]<(<{}()>[{}<>])({<>[
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10
2021/input/2021/day11.txt Normal file
View File

@ -0,0 +1,10 @@
7313511551
3724855867
2374331571
4438213437
6511566287
6727245532
3736868662
2348138263
2417483121
8812617112

22
2021/input/2021/day12.txt Normal file
View File

@ -0,0 +1,22 @@
zs-WO
zs-QJ
WO-zt
zs-DP
WO-end
gv-zt
iu-SK
HW-zs
iu-WO
gv-WO
gv-start
gv-DP
start-WO
HW-zt
iu-HW
gv-HW
zs-SK
HW-end
zs-end
DP-by
DP-iu
zt-start

910
2021/input/2021/day13.txt Normal file
View File

@ -0,0 +1,910 @@
724,201
596,511
883,560
637,47
869,537
251,505
851,618
980,544
818,661
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261,840
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586,313
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758,712
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117,312
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918,822
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735,649
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108,168
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251,53
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358,742
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1077,133
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681,144
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338,222
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653,614
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440,43
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85,217
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87,514
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669,464
318,682
485,73
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738,37
1297,870
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932,238
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87,380
174,94
411,819
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189,261
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72,267
649,642
156,644
517,406
705,562
1059,614
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623,702
619,462
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344,52
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1275,238
656,47
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244,821
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1257,311
112,14
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552,429
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398,306
1208,182
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1225,665
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1078,245
544,598
691,238
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264,740
855,833
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661,156
333,194
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127,891
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781,647
1099,247
1275,3
691,891
218,639
731,626
1093,504
550,735
1019,880
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147,508
392,822
542,432
209,235
410,234
895,113
107,798
7,23
119,591
709,364
1059,340
1198,148
179,360
226,49
43,98
195,640
452,561
49,52
359,761
1307,749
1235,392
556,355
547,58
790,725
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301,185
69,89
545,339
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509,84
1235,564
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1017,743
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291,616
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669,95
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127,575
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671,79
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333,225
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845,807
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552,630
1226,234
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523,332
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527,61
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25,730
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67,94
490,383
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654,686
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1054,9
982,175
1215,766
1198,880
1054,306
1305,156
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328,208
273,787
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1285,409
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1056,715
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1201,56
865,728
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546,31
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490,29
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234,841
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7,460
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301,435
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416,157
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30,432
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559,800
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207,460
279,247
360,833
1223,514
63,0
182,5
522,520
17,495
555,324
390,397
827,882
107,683
430,856
1150,656
579,788
769,170
164,677
1082,651
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576,320
863,210
857,144
984,549
672,766
67,800
35,443
412,682
326,529
304,621
556,539
117,669
918,72
654,47
219,388
654,753
1246,56
654,641
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562,681
72,403
1228,305
641,422
758,856
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1077,761
820,511
755,324
658,509
960,733
801,10
769,378
430,38
647,12
129,291
201,750
522,374
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75,564
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609,256
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1128,5
1245,495
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555,154
45,275
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922,253
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251,280
629,798
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164,569
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283,591
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619,451
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1141,73
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584,530
820,29
107,836
251,841
529,247
400,715
607,387
301,759
1048,374
227,707
281,771
711,607
1049,392
304,313
1235,626
209,883
452,333
30,408
403,492
510,98
933,68
161,58
1242,693
251,389
1191,322
1131,527
1213,439
586,201
904,369
783,319
929,359
838,348
878,411
109,443
1082,131
350,621
1048,889
326,208
763,96
132,593
84,350
1059,82
678,467
1091,836
1235,371
582,715
641,464
55,795
293,687
723,336
341,472
371,322
555,602
840,500
199,833
455,833
169,73
97,392
783,385
623,640
1111,840
765,891
1046,553
383,164
907,812
1131,870
1067,892
1129,472
246,436
644,670
624,38
353,135
666,227
835,399
112,148
247,859
383,99
535,684
338,555
552,805
594,17
880,472
801,436
997,472
559,667
341,676
247,35
1193,225
1,56
545,3
1149,58
455,710
753,887
687,640
1220,379
1115,724
1203,574
465,320
84,772
1273,359
873,339
783,3
199,54
1193,669
264,329
246,513
33,655
1293,495
432,187
601,871
803,47
825,373
259,110
586,245
412,436
927,347
345,775
970,257
870,311
fold along x=655
fold along y=447
fold along x=327
fold along y=223
fold along x=163
fold along y=111
fold along x=81
fold along y=55
fold along x=40
fold along y=27
fold along y=13
fold along y=6

102
2021/input/2021/day14.txt Normal file
View File

@ -0,0 +1,102 @@
VHCKBFOVCHHKOHBPNCKO
SO -> F
OP -> V
NF -> F
BO -> V
BH -> S
VB -> B
SV -> B
BK -> S
KC -> N
SP -> O
CP -> O
VN -> O
HO -> S
PC -> B
CS -> O
PO -> K
KF -> B
BP -> K
VO -> O
HB -> N
PH -> O
FF -> O
FB -> K
CC -> H
FK -> F
HV -> P
CO -> S
OC -> N
KV -> V
SS -> O
FC -> O
NP -> B
OH -> B
OF -> K
KB -> K
BN -> C
OK -> C
NC -> O
NO -> O
FS -> C
VP -> K
KP -> S
VS -> B
VV -> N
NN -> P
KH -> P
OB -> H
HP -> H
KK -> H
FH -> F
KS -> V
BS -> V
SN -> H
CB -> B
HN -> K
SB -> O
OS -> K
BC -> H
OV -> N
PN -> B
VH -> N
SK -> C
PV -> K
VC -> N
PF -> S
NB -> B
PP -> S
NS -> F
PB -> B
CV -> C
HK -> P
PK -> S
NH -> B
SH -> V
KO -> H
NV -> B
HH -> V
FO -> O
CK -> O
VK -> F
HF -> O
BF -> C
BV -> P
KN -> K
VF -> C
FN -> V
ON -> C
SF -> F
SC -> C
OO -> S
FP -> K
PS -> C
NK -> O
BB -> V
HC -> H
FV -> V
CH -> N
HS -> V
CF -> F
CN -> S

100
2021/input/2021/day15.txt Normal file
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@ -0,0 +1,100 @@
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@ -0,0 +1 @@
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

View File

@ -0,0 +1 @@
target area: x=88..125, y=-157..-103

100
2021/input/2021/day18.txt Normal file
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@ -0,0 +1,100 @@
[[2,[2,[4,0]]],[6,1]]
[[3,[4,[2,4]]],[[6,9],[6,1]]]
[7,[8,[8,[0,8]]]]
[[[[2,9],5],5],[[[0,1],8],[[7,9],5]]]
[[[[3,0],[7,0]],[[9,6],[1,9]]],4]
[[[0,[4,8]],8],[[[2,1],9],6]]
[[[5,[7,7]],[[9,6],2]],[[[5,8],8],0]]
[[0,3],[[8,2],[6,[2,2]]]]
[[[9,0],[4,[4,7]]],[7,[[9,1],9]]]
[0,[7,[1,1]]]
[[[4,[0,1]],[[1,0],8]],[[[3,9],[0,1]],[[9,1],[8,8]]]]
[[[6,0],3],2]
[[[[4,1],[2,7]],[9,[8,9]]],[[3,0],0]]
[[[[2,4],[8,7]],[9,[9,7]]],[[[2,5],6],9]]
[[7,6],[[4,[2,4]],[3,8]]]
[[7,2],[[8,8],7]]
[[[[6,0],4],[[4,7],4]],[[6,[2,7]],[[6,5],3]]]
[[[[8,8],[7,6]],4],5]
[[0,[[6,9],[7,9]]],[9,5]]
[9,[[[0,4],6],[[7,0],0]]]
[[[[4,4],0],[3,[3,9]]],[[7,5],[5,[7,2]]]]
[[[8,3],[[8,5],[4,4]]],[0,[0,3]]]
[[9,[3,[6,7]]],[[7,0],[[9,2],7]]]
[[[3,7],[[3,6],9]],7]
[[2,[2,[5,7]]],[[[6,4],5],[4,7]]]
[[[[9,0],2],[[4,4],6]],[[[3,2],[5,5]],[[5,9],7]]]
[[[[2,5],4],[8,5]],6]
[[[3,2],[[1,7],5]],[[8,1],[1,[1,2]]]]
[8,[[3,[5,4]],5]]
[[[2,[5,9]],[1,3]],[[[2,3],[8,3]],[[5,1],[8,9]]]]
[[[2,0],[[3,3],[4,7]]],[[[8,7],[7,4]],1]]
[[[[7,4],9],[3,[4,1]]],[[[8,4],5],7]]
[[[[0,2],9],3],[9,[5,3]]]
[3,4]
[[[1,[0,2]],[[9,9],[8,2]]],6]
[[[[2,9],[3,5]],9],[[9,3],[3,[6,7]]]]
[[0,[[4,6],4]],[2,[5,2]]]
[9,[[9,[6,8]],8]]
[3,[[[1,2],[0,9]],[[4,9],1]]]
[[[[8,7],[1,7]],[[2,6],[8,5]]],[3,[[8,0],[6,9]]]]
[[8,[[4,9],7]],[3,[9,4]]]
[[0,[[3,2],[2,2]]],0]
[[[2,7],[[5,7],4]],[[[6,0],[2,1]],[[4,1],[1,6]]]]
[[[[9,6],[0,3]],[[0,6],[0,4]]],[[[3,7],[6,7]],7]]
[[[[1,1],6],[[5,6],4]],[[5,[0,7]],1]]
[[[3,9],[[7,3],[1,5]]],[[[1,2],3],[0,[5,6]]]]
[[[[4,4],[0,5]],6],[[7,[2,0]],6]]
[[[[2,2],6],9],[[[9,1],2],[[8,6],8]]]
[[[[5,0],8],[[5,7],7]],[6,[5,3]]]
[[[[8,2],[8,4]],1],[[1,[7,3]],8]]
[[[[3,2],2],[[4,9],[5,4]]],[[[9,2],4],[5,[6,0]]]]
[[1,[[0,6],0]],[[[1,5],2],[[6,0],[3,7]]]]
[4,[7,[6,[3,3]]]]
[[[0,[2,5]],2],5]
[[[0,[5,7]],9],[[[2,3],[3,4]],[[0,4],9]]]
[[3,1],[[[4,1],9],[[0,5],[8,6]]]]
[[9,[2,0]],[[0,[1,7]],[9,[6,4]]]]
[[[[6,5],5],5],[5,8]]
[[[[2,8],[1,3]],[[5,4],2]],[[[0,8],[5,1]],[9,[5,6]]]]
[[[[6,9],7],[9,7]],2]
[[[[1,7],8],[8,7]],[[[3,5],4],8]]
[[[[1,8],[1,0]],0],[[7,1],5]]
[[[9,[6,8]],3],[[5,1],[4,[8,2]]]]
[[[0,[2,1]],1],[3,[9,[5,5]]]]
[[2,5],[2,5]]
[[[[1,1],[8,3]],[[1,9],[4,9]]],[[5,[4,8]],[[5,0],0]]]
[[[0,7],[[3,4],1]],[[[1,2],[2,9]],[[2,0],9]]]
[3,2]
[[[9,[8,2]],[7,3]],7]
[[[[6,9],9],[3,2]],0]
[[3,[[6,1],8]],6]
[[[[5,9],9],[[4,4],7]],[7,5]]
[1,[[2,8],0]]
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1054
2021/input/2021/day19.txt Normal file

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@ -0,0 +1,5 @@
#############
#...........#
###D#A#C#D###
#C#A#B#B#
#########

1000
2021/input/2021/day3.txt Normal file

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601
2021/input/2021/day4.txt Normal file
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@ -0,0 +1,601 @@
72,99,88,8,59,61,96,92,2,70,1,32,18,10,95,33,20,31,66,43,26,24,91,44,11,15,48,90,27,29,14,68,3,50,69,74,54,4,16,55,64,12,73,80,58,83,6,87,30,41,25,39,93,60,9,81,63,75,46,19,78,51,21,28,94,7,17,42,53,13,97,98,34,76,89,23,86,52,79,85,67,84,47,22,37,65,71,49,82,40,77,36,62,0,56,45,57,38,35,5
91 60 70 64 83
35 41 79 55 31
7 58 25 3 47
2 23 69 59 21
11 22 8 87 90
77 95 19 21 76
93 92 62 35 3
4 29 7 41 45
80 50 83 61 64
39 32 91 56 48
47 11 39 58 97
63 51 40 74 71
12 17 68 81 44
64 85 20 84 80
0 77 5 18 50
44 82 32 1 57
98 88 33 83 85
25 61 63 99 37
0 74 7 20 39
71 72 22 80 28
78 97 0 48 41
56 51 62 58 90
8 44 98 46 1
38 40 91 20 55
88 2 32 86 14
84 50 16 45 40
9 39 60 34 46
57 20 12 3 36
58 17 72 48 83
73 85 49 67 66
4 30 73 83 57
74 23 49 19 42
72 65 8 99 13
25 6 82 53 68
20 86 46 48 50
52 29 61 16 75
36 19 2 82 9
34 90 89 43 14
69 66 20 21 11
31 53 46 18 23
37 76 34 79 99
43 5 42 91 71
47 54 19 82 81
95 78 65 60 24
32 94 92 27 66
68 61 80 90 53
33 17 52 0 23
30 71 5 85 11
27 39 41 6 9
58 98 7 74 89
31 5 55 67 51
54 86 40 25 92
91 62 9 94 7
39 0 44 52 28
12 17 26 46 32
94 80 83 88 77
65 71 31 86 0
98 55 18 92 72
6 12 30 25 34
67 53 14 20 47
81 74 14 47 1
83 82 4 89 8
43 93 63 21 44
92 61 25 77 97
12 72 35 78 52
26 39 13 37 46
87 6 58 47 19
24 35 45 95 52
5 27 42 96 0
23 64 8 29 83
53 58 18 96 93
57 90 35 88 68
91 89 7 80 47
59 86 81 24 31
43 8 66 17 94
0 97 91 67 90
93 20 36 4 42
43 64 28 94 34
31 2 7 54 71
18 35 76 86 16
55 63 26 47 0
2 23 54 25 90
36 13 85 31 15
59 51 18 88 62
44 69 9 81 58
26 97 98 42 27
3 53 91 89 93
87 57 12 18 5
29 99 86 47 64
6 28 92 79 67
4 35 45 79 16
33 95 99 80 9
60 78 57 51 50
27 5 48 21 46
19 70 32 58 18
94 82 61 66 31
14 56 76 37 28
42 81 50 10 40
2 98 47 29 62
69 90 46 44 18
87 3 8 50 17
15 90 54 45 21
6 28 43 51 32
97 84 69 30 38
98 44 88 55 83
34 19 27 43 92
81 62 52 32 39
50 29 83 25 82
60 55 49 41 97
75 94 22 69 66
59 39 96 87 65
33 18 4 71 15
22 27 92 8 29
19 5 32 85 45
91 79 35 9 3
41 53 51 68 85
72 71 94 82 81
60 38 13 16 7
49 80 10 0 54
20 39 59 64 99
37 21 90 40 73
85 75 16 34 99
84 15 25 18 27
77 32 0 76 36
13 50 68 91 12
24 26 0 14 12
89 4 15 95 73
54 2 55 84 42
30 50 81 60 87
37 94 71 91 53
52 1 81 44 34
27 60 36 19 69
98 11 49 67 56
77 72 40 48 66
84 9 37 32 51
58 15 7 36 55
94 49 69 89 87
79 70 30 77 19
68 31 56 41 53
47 85 74 54 46
64 87 23 66 0
29 98 72 82 80
70 45 46 30 37
53 54 33 86 76
6 75 71 68 2
12 31 43 80 41
37 15 13 2 3
86 61 9 17 59
55 68 72 8 1
96 26 44 73 47
67 39 95 84 10
5 88 13 81 99
68 15 98 6 17
47 85 74 32 97
58 8 16 56 42
82 31 42 84 17
25 28 2 6 12
78 57 16 97 18
87 64 54 30 65
3 77 29 49 81
24 1 43 89 46
29 78 57 14 85
9 58 53 83 35
96 42 62 68 74
67 2 39 37 51
72 26 46 52 3
91 27 41 32 53
25 36 7 63 22
56 38 93 65 9
95 19 77 64 44
21 71 13 99 39
47 17 80 85 64
5 18 48 27 81
82 23 45 57 12
83 55 26 31 32
57 13 86 69 65
42 76 35 18 39
17 91 95 43 6
55 97 22 54 14
56 0 5 60 92
87 12 46 42 35
44 6 95 30 67
51 21 68 37 59
77 65 50 69 63
33 56 24 57 28
82 87 42 99 39
38 55 74 28 6
77 66 9 80 10
47 90 32 3 98
92 52 5 94 51
16 1 87 57 66
41 70 58 31 5
71 88 17 42 76
81 40 25 89 63
92 4 61 77 64
70 28 56 51 66
44 60 25 0 45
91 78 81 95 88
75 43 57 67 32
58 27 20 82 22
16 98 82 79 90
96 4 80 69 19
9 28 33 40 94
2 99 14 73 43
76 68 74 42 30
29 42 94 45 2
25 81 46 54 26
75 99 51 58 23
76 72 71 64 63
66 70 92 44 13
2 71 39 49 95
19 84 1 7 96
9 6 60 93 78
38 91 55 36 41
64 3 10 20 74
79 80 15 69 89
36 76 83 7 72
87 34 48 0 93
5 84 77 20 75
46 27 11 55 3
82 34 4 14 74
40 39 7 6 95
11 51 78 80 29
97 81 38 9 71
22 62 19 72 68
54 70 90 43 98
12 27 57 96 62
32 76 0 86 42
88 68 81 91 50
10 94 18 71 2
90 41 29 53 58
59 62 14 85 66
25 82 68 44 93
73 32 76 67 18
94 71 83 34 37
6 72 69 33 90
87 60 66 85 16
59 80 86 47 89
32 98 17 29 5
48 27 18 57 81
10 22 98 86 82
8 66 71 14 93
87 79 40 78 49
84 63 17 54 94
35 39 47 1 96
58 60 52 6 86
41 20 66 59 2
92 79 88 40 71
96 9 25 36 17
91 32 43 38 8
74 3 64 66 68
69 37 22 76 33
17 67 29 32 27
63 49 46 21 60
35 73 9 52 50
0 91 8 26 9
3 98 79 97 7
37 61 1 60 47
86 17 11 70 15
66 53 2 90 54
68 42 0 78 16
83 88 21 87 12
50 2 29 14 63
72 90 81 71 91
54 79 94 10 4
28 63 97 31 4
50 52 43 24 16
36 77 0 9 75
83 94 69 68 27
93 82 42 56 34
24 52 66 51 82
50 30 34 93 67
56 70 53 13 78
4 84 88 57 81
80 74 5 95 98
56 64 53 52 72
51 48 50 60 49
8 46 84 95 43
91 21 7 88 33
94 57 80 25 54
70 57 62 20 18
86 45 41 76 32
87 35 52 5 2
16 77 25 39 22
38 10 6 29 98
89 54 57 80 65
0 38 94 15 6
85 76 16 83 59
92 5 53 14 95
47 35 73 98 34
64 24 90 71 69
55 35 20 98 41
94 70 10 73 16
65 84 60 7 72
83 2 22 78 99
31 81 74 56 98
13 97 95 49 67
9 47 42 99 60
38 22 65 58 21
82 45 2 28 68
90 88 28 85 51
23 93 13 55 50
63 22 3 30 39
5 71 82 95 81
57 76 12 92 56
78 12 28 6 73
59 24 43 29 31
30 34 75 52 48
62 57 23 74 50
91 92 5 95 38
95 88 13 22 10
16 4 19 37 91
50 52 60 46 77
45 55 49 41 26
21 7 67 48 18
51 79 44 16 71
6 13 12 41 97
50 25 19 63 4
98 0 23 77 31
27 57 52 99 3
86 95 7 54 84
50 33 48 16 9
82 32 38 6 34
43 80 27 37 11
89 70 41 22 45
24 3 47 68 35
85 76 8 29 4
2 10 5 28 73
92 89 50 25 56
99 57 79 19 37
0 46 72 5 20
62 28 24 53 44
84 25 63 34 9
75 1 65 59 10
95 29 97 77 45
87 90 1 17 67
57 73 35 10 30
65 14 46 60 6
70 66 56 69 92
3 27 21 64 88
20 58 53 29 66
27 6 67 89 33
88 60 79 69 97
90 3 47 68 25
48 59 42 98 39
65 90 45 97 87
75 98 7 58 42
51 4 95 88 47
94 6 11 53 63
49 80 2 48 68
3 77 42 97 82
70 58 81 18 47
78 96 62 39 56
22 87 71 31 94
34 48 57 38 88
70 36 65 33 45
71 0 59 44 1
42 37 7 5 9
11 12 91 43 27
60 21 57 61 99
76 75 56 49 2
36 57 39 64 77
95 19 35 43 97
82 34 50 44 55
45 74 15 66 29
0 75 1 78 79
13 37 48 27 14
90 50 26 92 67
89 62 87 69 33
29 47 4 2 12
74 42 24 86 61
92 66 3 65 75
7 1 77 63 64
39 91 87 28 5
30 35 41 73 96
0 81 41 15 66
62 19 86 31 40
23 94 98 82 24
61 99 1 5 60
80 64 91 33 47
16 61 56 77 57
28 59 71 45 92
53 20 35 66 73
99 3 86 31 74
94 69 84 96 90
71 56 23 76 42
90 44 58 27 15
46 18 86 63 24
69 49 82 38 43
33 51 60 66 39
75 78 38 25 76
67 3 83 90 10
40 89 47 23 88
34 21 46 16 33
9 79 50 0 26
81 75 80 23 41
62 4 76 1 63
56 39 57 28 61
20 6 79 92 84
88 3 90 16 12
87 78 3 34 63
98 21 24 9 99
62 29 57 65 27
47 52 67 76 71
11 17 93 23 82
53 68 70 38 56
62 54 25 43 35
9 3 13 15 75
59 27 26 33 83
93 40 11 64 76
27 83 26 48 77
51 20 65 18 35
80 30 60 44 89
84 82 62 91 63
12 97 11 19 34
31 28 92 48 34
9 93 61 71 60
52 18 97 81 62
80 64 57 22 30
11 88 74 29 56
57 34 90 46 73
31 0 70 66 82
45 12 40 19 87
91 24 59 83 14
80 21 13 86 89
9 8 64 48 30
6 62 28 99 41
79 45 83 7 55
15 14 54 88 12
90 74 97 96 50
50 73 58 26 12
96 98 56 34 7
51 92 14 89 16
41 70 80 55 13
37 47 2 64 99
98 9 70 17 18
39 15 88 16 47
80 41 8 51 21
54 42 31 10 59
37 92 33 62 68
60 72 51 63 29
83 39 41 24 14
34 5 94 90 56
75 80 67 17 20
47 11 58 93 42
97 7 27 42 67
12 30 91 45 52
62 50 87 92 71
99 84 33 6 46
29 55 86 47 60
25 49 55 98 22
66 9 61 59 90
45 74 77 88 5
6 76 0 36 93
23 70 33 95 2
53 92 27 86 55
66 52 26 58 38
2 78 69 62 65
30 5 1 25 99
76 43 4 13 8
18 72 51 48 39
62 19 28 44 82
54 22 38 55 83
86 93 42 9 32
11 89 27 34 68
85 99 35 88 76
10 25 33 83 70
54 81 77 73 66
4 74 96 41 86
49 3 68 65 39
71 0 70 14 31
28 23 17 43 75
13 40 38 87 97
63 93 92 89 27
58 76 24 53 54
55 58 11 38 16
98 86 13 12 8
22 10 77 61 90
37 76 2 62 45
44 30 52 70 82
89 55 12 90 63
40 88 91 22 74
8 0 25 6 79
53 23 87 77 20
11 38 78 43 94
21 14 37 8 16
29 73 67 91 56
5 90 12 92 59
64 1 42 72 94
98 86 18 69 49
79 71 82 1 77
96 39 24 60 81
49 16 12 63 14
0 32 78 37 8
92 33 15 99 65
54 11 40 55 33
58 47 4 83 94
46 96 16 28 5
0 62 95 71 39
93 59 7 75 64

500
2021/input/2021/day5.txt Normal file
View File

@ -0,0 +1,500 @@
217,490 -> 217,764
44,270 -> 373,599
440,139 -> 440,303
161,663 -> 345,663
848,963 -> 908,963
299,207 -> 162,70
77,346 -> 77,686
693,743 -> 693,127
96,459 -> 96,779
864,39 -> 233,670
58,79 -> 203,79
158,596 -> 463,291
633,293 -> 136,293
656,474 -> 656,72
148,754 -> 947,754
535,780 -> 535,460
821,701 -> 821,796
592,200 -> 592,610
620,786 -> 722,786
632,731 -> 536,731
825,640 -> 195,10
956,547 -> 956,387
25,32 -> 981,988
870,613 -> 870,16
369,780 -> 369,362
348,924 -> 243,924
28,114 -> 540,114
702,690 -> 702,335
836,442 -> 184,442
602,11 -> 602,651
76,988 -> 608,988
15,922 -> 951,922
363,18 -> 296,18
130,580 -> 516,580
799,335 -> 858,335
571,842 -> 571,800
684,654 -> 684,971
815,674 -> 66,674
575,612 -> 575,919
652,126 -> 822,296
391,493 -> 730,493
810,479 -> 810,807
397,420 -> 780,37
187,740 -> 869,740
175,626 -> 175,169
773,901 -> 773,44
45,130 -> 45,17
226,253 -> 252,279
481,928 -> 481,521
121,506 -> 121,50
306,386 -> 653,733
115,635 -> 208,542
619,67 -> 212,67
82,79 -> 972,969
15,20 -> 15,933
606,136 -> 500,136
791,250 -> 791,316
128,931 -> 781,278
11,365 -> 11,226
705,326 -> 57,326
778,632 -> 173,27
121,624 -> 121,737
30,815 -> 909,815
18,114 -> 869,965
554,741 -> 554,771
284,826 -> 945,826
386,654 -> 295,654
235,848 -> 418,848
536,59 -> 497,59
156,922 -> 29,922
57,718 -> 174,718
964,774 -> 964,426
729,950 -> 729,254
896,117 -> 152,861
603,919 -> 603,776
176,472 -> 573,472
25,970 -> 939,56
478,482 -> 38,482
155,936 -> 956,135
351,621 -> 133,403
513,323 -> 103,323
679,167 -> 679,983
910,456 -> 241,456
16,266 -> 16,829
338,791 -> 973,156
564,73 -> 564,676
196,800 -> 339,800
15,776 -> 973,776
719,134 -> 719,775
730,692 -> 272,692
247,770 -> 244,770
853,720 -> 940,720
685,379 -> 873,379
944,647 -> 944,206
67,974 -> 967,74
828,194 -> 355,194
596,522 -> 596,169
677,970 -> 638,970
587,427 -> 587,354
804,488 -> 469,153
355,653 -> 787,221
798,873 -> 133,873
565,798 -> 534,829
239,273 -> 20,273
942,138 -> 398,138
499,743 -> 958,284
913,466 -> 514,466
504,705 -> 504,983
455,863 -> 451,863
638,255 -> 425,255
338,724 -> 338,457
147,880 -> 928,99
11,955 -> 806,160
566,961 -> 231,961
870,560 -> 611,560
714,925 -> 859,925
484,946 -> 905,946
112,394 -> 266,394
191,728 -> 191,635
983,806 -> 217,40
575,286 -> 730,286
366,323 -> 366,211
383,990 -> 834,990
834,976 -> 26,168
819,492 -> 819,648
257,522 -> 257,199
756,176 -> 244,176
165,199 -> 569,199
896,943 -> 18,65
986,642 -> 354,10
864,381 -> 349,381
177,982 -> 977,182
458,254 -> 458,920
550,322 -> 550,297
956,748 -> 270,62
412,305 -> 292,305
201,571 -> 375,571
608,139 -> 608,330
646,718 -> 432,504
449,325 -> 449,115
315,971 -> 955,331
248,143 -> 477,143
956,858 -> 111,13
776,608 -> 739,608
44,842 -> 548,842
590,487 -> 590,792
978,127 -> 978,748
620,948 -> 852,948
67,403 -> 67,122
340,256 -> 346,256
803,58 -> 474,387
876,448 -> 876,55
78,288 -> 565,288
235,80 -> 480,80
949,880 -> 949,666
529,734 -> 529,332
780,973 -> 780,824
900,279 -> 698,279
290,438 -> 34,694
766,569 -> 766,443
729,690 -> 729,137
72,938 -> 72,893
960,563 -> 960,322
669,293 -> 578,293
396,388 -> 984,388
675,694 -> 211,230
152,743 -> 63,743
203,660 -> 391,660
582,806 -> 906,806
698,837 -> 698,483
869,320 -> 595,594
283,817 -> 283,861
919,926 -> 919,235
16,64 -> 930,978
980,25 -> 16,989
181,890 -> 952,119
877,731 -> 877,364
130,55 -> 130,111
30,298 -> 590,858
134,933 -> 134,41
711,853 -> 711,196
123,206 -> 841,924
130,585 -> 130,394
161,952 -> 531,952
455,830 -> 455,919
612,817 -> 30,817
461,474 -> 106,119
511,100 -> 581,30
263,550 -> 263,814
976,973 -> 14,11
749,876 -> 380,876
731,226 -> 731,659
630,682 -> 570,622
914,780 -> 311,780
975,274 -> 87,274
328,957 -> 724,957
357,950 -> 357,659
466,580 -> 466,726
854,425 -> 854,559
39,106 -> 39,82
675,711 -> 956,711
204,117 -> 672,585
867,101 -> 49,919
849,88 -> 784,88
394,249 -> 394,730
865,188 -> 125,928
316,918 -> 722,918
781,336 -> 781,551
821,826 -> 258,826
597,273 -> 597,653
726,266 -> 90,902
701,701 -> 941,701
105,401 -> 949,401
890,486 -> 890,205
651,409 -> 651,408
450,88 -> 51,88
29,478 -> 29,667
676,293 -> 676,77
380,773 -> 962,773
253,836 -> 429,836
833,706 -> 123,706
689,167 -> 665,143
375,540 -> 375,346
867,222 -> 746,343
99,832 -> 370,561
133,349 -> 133,815
950,981 -> 12,43
195,466 -> 644,466
84,876 -> 84,720
128,237 -> 34,331
872,947 -> 960,947
641,220 -> 641,472
489,950 -> 489,441
508,513 -> 721,300
394,137 -> 332,137
456,672 -> 625,503
65,463 -> 540,463
207,745 -> 529,423
948,888 -> 891,831
39,642 -> 165,642
20,228 -> 20,386
706,50 -> 57,699
66,736 -> 66,840
944,450 -> 915,479
697,988 -> 697,862
987,969 -> 57,39
64,813 -> 64,468
814,85 -> 469,85
667,749 -> 154,236
755,337 -> 755,50
536,185 -> 536,217
732,48 -> 529,48
33,578 -> 430,578
511,658 -> 669,658
294,352 -> 353,352
109,937 -> 820,226
465,346 -> 465,114
878,965 -> 34,121
259,933 -> 576,933
240,750 -> 240,296
567,633 -> 899,965
29,609 -> 169,469
962,532 -> 962,921
443,875 -> 395,875
831,584 -> 510,263
859,35 -> 84,810
829,285 -> 829,463
486,661 -> 883,661
371,672 -> 959,84
722,532 -> 722,241
49,216 -> 468,216
308,343 -> 308,277
183,626 -> 264,545
748,611 -> 356,611
67,85 -> 925,943
726,972 -> 726,272
841,222 -> 841,867
597,250 -> 813,250
20,631 -> 555,631
803,846 -> 589,632
276,654 -> 222,708
400,952 -> 672,952
939,173 -> 534,173
638,316 -> 638,935
578,120 -> 578,101
54,457 -> 723,457
904,713 -> 904,721
902,180 -> 99,983
590,426 -> 174,10
740,975 -> 309,975
84,242 -> 803,961
28,667 -> 362,333
73,703 -> 73,354
902,26 -> 902,365
602,455 -> 578,431
339,686 -> 339,846
764,444 -> 311,444
780,535 -> 862,453
333,127 -> 911,127
451,296 -> 451,832
849,681 -> 849,580
309,672 -> 309,913
339,411 -> 147,411
907,478 -> 974,545
444,753 -> 855,342
642,285 -> 683,244
307,633 -> 751,633
292,128 -> 767,603
969,92 -> 647,414
80,120 -> 942,982
886,810 -> 740,810
205,846 -> 168,846
878,230 -> 72,230
186,822 -> 628,822
472,66 -> 472,609
251,753 -> 129,753
575,959 -> 102,959
582,194 -> 858,194
43,986 -> 43,589
355,402 -> 751,402
982,292 -> 86,292
329,966 -> 329,379
475,291 -> 475,924
625,70 -> 625,350
358,467 -> 981,467
319,700 -> 736,283
657,247 -> 654,247
450,803 -> 450,497
812,15 -> 812,425
649,160 -> 377,160
684,491 -> 690,491
925,429 -> 772,429
138,91 -> 883,91
602,121 -> 774,293
700,531 -> 451,531
250,216 -> 800,766
550,784 -> 289,784
53,759 -> 228,759
678,310 -> 645,343
147,70 -> 171,46
130,653 -> 130,103
292,640 -> 731,640
797,762 -> 618,762
154,75 -> 964,885
222,523 -> 557,523
989,103 -> 989,964
335,61 -> 422,61
782,954 -> 160,332
82,929 -> 82,528
732,540 -> 635,637
950,362 -> 798,362
415,566 -> 916,566
588,446 -> 743,291
495,46 -> 495,435
913,561 -> 303,561
788,902 -> 788,698
81,783 -> 715,149
867,990 -> 867,558
145,919 -> 145,725
850,861 -> 727,861
535,129 -> 535,496
922,772 -> 922,917
882,559 -> 672,349
496,80 -> 496,948
915,244 -> 516,643
633,461 -> 748,461
899,341 -> 677,341
66,981 -> 878,169
68,24 -> 984,940
12,880 -> 23,869
779,514 -> 779,752
878,641 -> 949,641
264,919 -> 229,919
213,281 -> 213,196
538,149 -> 538,278
184,478 -> 364,298
301,136 -> 923,758
559,266 -> 559,986
384,37 -> 384,558
815,529 -> 800,514
33,80 -> 624,80
561,261 -> 215,607
169,944 -> 169,921
673,42 -> 164,42
820,977 -> 424,581
816,29 -> 802,29
374,924 -> 121,671
962,555 -> 426,19
982,199 -> 860,77
334,62 -> 359,62
960,785 -> 260,85
681,280 -> 860,280
184,925 -> 184,30
332,398 -> 858,924
405,270 -> 218,270
261,846 -> 29,614
591,941 -> 591,716
313,502 -> 313,637
930,259 -> 779,259
432,15 -> 566,149
51,182 -> 223,182
603,536 -> 603,281
139,703 -> 825,17
965,22 -> 55,932
389,608 -> 771,608
209,617 -> 923,617
769,672 -> 769,236
163,717 -> 638,717
801,604 -> 136,604
974,881 -> 110,17
187,226 -> 929,968
430,949 -> 473,949
899,279 -> 899,224
964,806 -> 964,876
635,190 -> 349,190
142,656 -> 142,216
740,814 -> 35,109
588,956 -> 534,956
107,968 -> 707,968
787,639 -> 787,50
964,491 -> 964,148
30,70 -> 30,323
30,905 -> 806,129
592,419 -> 91,419
73,87 -> 973,987
540,683 -> 540,139
422,107 -> 422,90
935,74 -> 935,590
728,566 -> 188,26
839,313 -> 839,620
723,898 -> 723,719
679,814 -> 679,617
203,633 -> 417,633
36,812 -> 546,302
112,316 -> 598,802
798,773 -> 989,964
914,69 -> 520,69
213,556 -> 213,19
795,516 -> 795,220
348,803 -> 664,803
910,861 -> 238,189
633,691 -> 594,691
96,166 -> 96,60
278,848 -> 854,272
64,370 -> 64,815
386,196 -> 386,222
888,330 -> 888,834
166,482 -> 37,482
594,283 -> 594,865
515,267 -> 515,448
707,279 -> 239,747
302,745 -> 302,268
210,830 -> 885,155
592,180 -> 592,324
245,154 -> 245,613
607,954 -> 545,954
854,951 -> 19,116
77,878 -> 963,878
759,585 -> 759,892
750,918 -> 750,130
62,716 -> 329,983
785,880 -> 785,590
318,794 -> 318,599
403,547 -> 719,863
742,803 -> 742,937
680,579 -> 680,425
268,404 -> 826,962
425,959 -> 710,959
406,823 -> 976,253
359,361 -> 165,361
276,861 -> 657,480
74,260 -> 743,929
194,129 -> 194,651
879,835 -> 65,21
16,977 -> 980,13
538,525 -> 624,439
985,789 -> 985,510
699,850 -> 560,711
301,48 -> 477,224
28,938 -> 905,61
844,530 -> 793,530
286,325 -> 936,975
368,122 -> 677,431
924,153 -> 924,774
783,498 -> 783,148
250,392 -> 578,392
465,345 -> 573,345
860,763 -> 860,40
373,226 -> 599,226
169,562 -> 169,292
408,123 -> 569,123
510,396 -> 733,396
199,20 -> 199,770
892,631 -> 237,631
671,863 -> 705,863
141,530 -> 141,630
467,159 -> 367,159
729,501 -> 255,975
578,871 -> 578,225
821,363 -> 821,820

1
2021/input/2021/day6.txt Normal file
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@ -0,0 +1 @@
1,1,1,3,3,2,1,1,1,1,1,4,4,1,4,1,4,1,1,4,1,1,1,3,3,2,3,1,2,1,1,1,1,1,1,1,3,4,1,1,4,3,1,2,3,1,1,1,5,2,1,1,1,1,2,1,2,5,2,2,1,1,1,3,1,1,1,4,1,1,1,1,1,3,3,2,1,1,3,1,4,1,2,1,5,1,4,2,1,1,5,1,1,1,1,4,3,1,3,2,1,4,1,1,2,1,4,4,5,1,3,1,1,1,1,2,1,4,4,1,1,1,3,1,5,1,1,1,1,1,3,2,5,1,5,4,1,4,1,3,5,1,2,5,4,3,3,2,4,1,5,1,1,2,4,1,1,1,1,2,4,1,2,5,1,4,1,4,2,5,4,1,1,2,2,4,1,5,1,4,3,3,2,3,1,2,3,1,4,1,1,1,3,5,1,1,1,3,5,1,1,4,1,4,4,1,3,1,1,1,2,3,3,2,5,1,2,1,1,2,2,1,3,4,1,3,5,1,3,4,3,5,1,1,5,1,3,3,2,1,5,1,1,3,1,1,3,1,2,1,3,2,5,1,3,1,1,3,5,1,1,1,1,2,1,2,4,4,4,2,2,3,1,5,1,2,1,3,3,3,4,1,1,5,1,3,2,4,1,5,5,1,4,4,1,4,4,1,1,2

1
2021/input/2021/day7.txt Normal file
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@ -0,0 +1 @@
1101,1,29,67,1102,0,1,65,1008,65,35,66,1005,66,28,1,67,65,20,4,0,1001,65,1,65,1106,0,8,99,35,67,101,99,105,32,110,39,101,115,116,32,112,97,115,32,117,110,101,32,105,110,116,99,111,100,101,32,112,114,111,103,114,97,109,10,160,1267,277,1068,422,1235,790,1391,45,252,513,1029,414,216,409,1373,1419,1176,757,64,748,835,20,436,147,347,1264,1532,240,272,430,7,85,51,12,107,1277,779,867,260,802,361,89,754,206,80,25,559,220,657,178,186,2,31,825,290,144,379,0,1682,1166,1241,180,102,464,444,122,718,25,100,1050,1358,604,546,1157,130,59,127,1351,238,97,75,821,265,23,786,116,115,93,730,1340,777,1114,263,352,115,5,69,1041,101,1222,203,1273,217,28,976,425,480,7,124,45,192,860,312,1107,1040,137,306,523,692,590,562,789,383,145,86,297,791,240,697,22,230,834,963,837,1164,1758,487,414,86,1026,1034,478,613,1,769,85,980,935,1455,16,204,170,380,324,14,699,220,50,451,738,52,437,963,718,178,508,711,1739,936,1515,246,908,126,602,295,591,22,484,752,1,1442,167,132,52,613,1172,353,36,56,468,123,393,765,1456,218,269,6,20,649,727,454,86,640,1113,836,124,405,571,882,107,75,730,346,94,35,626,1174,299,392,1449,502,854,500,128,852,248,645,159,774,155,884,1336,285,426,0,269,466,1483,93,13,17,255,295,530,694,1178,968,612,224,160,32,1154,194,494,24,845,43,274,344,301,486,43,351,581,929,168,1629,163,206,98,1242,1242,1706,1777,721,293,1621,132,199,12,66,247,1244,333,445,154,795,70,424,11,826,835,250,288,408,516,822,411,69,636,521,152,67,401,531,186,933,515,780,490,201,369,111,266,952,400,677,372,548,1325,1111,17,543,1293,20,507,74,116,656,644,872,35,80,1273,279,475,1585,1446,651,1338,285,284,23,1130,237,843,121,53,81,573,5,956,276,553,1084,544,731,35,16,53,34,405,1337,665,303,10,108,1132,233,3,834,415,161,409,1055,202,707,296,341,57,521,548,15,137,359,57,388,282,267,293,1450,28,424,819,941,1388,474,687,87,271,1462,522,33,26,841,345,104,150,573,481,297,1075,489,420,424,340,504,685,105,898,870,206,129,516,492,42,216,1829,1317,10,60,54,255,103,457,257,101,93,981,412,67,519,574,169,799,381,1509,60,409,51,151,464,1676,916,18,30,772,1566,1283,359,1260,10,405,750,160,181,541,358,213,300,1073,328,399,214,119,478,889,65,56,1077,1427,52,359,90,42,1248,336,51,1396,509,237,785,440,806,339,99,354,640,272,665,772,135,91,11,175,128,482,1244,1243,629,137,140,1003,626,433,391,731,1180,671,169,710,1561,385,1281,272,236,318,207,1323,16,233,9,720,295,34,183,362,987,1016,366,760,1244,878,600,275,1209,41,792,951,85,636,125,217,342,184,581,1300,66,165,804,285,756,96,278,598,163,655,138,869,537,141,1364,897,406,617,65,444,244,494,172,119,358,1183,310,226,98,550,634,948,985,247,1499,729,165,371,939,299,761,477,1480,840,3,319,675,492,564,3,3,80,182,69,460,341,789,742,46,1309,360,48,296,363,946,214,252,54,147,435,85,276,1072,23,71,755,572,268,1362,619,639,365,623,1560,322,535,997,1021,317,663,82,314,857,16,194,363,24,240,1596,1123,242,816,116,645,64,38,589,428,147,632,457,555,908,921,202,182,403,551,358,483,1195,1213,28,1156,725,320,16,74,931,103,145,146,1206,433,1052,158,531,699,675,379,393,475,384,1041,141,1248,521,136,326,199,725,200,465,796,724,672,569,70,663,15,150,131,1261,17,1211,66,175,608,17,81,551,627,1469,1032,342,2,972,184,798,960,22,55,462,1,151,91,119,76,1062,96,1424,567,366,831,633,205,691,50,1314,732,558,167,1624,5,147,47,110,250,935,177,445,79,306,653,47,75,626,173,104,354,573,523,46,46,757,541,431,1129,787,502,1328,1093,82,872,1876,1386,136,504,273,194,297,0,163,1025,996,354,1457,1127,52,45,1364,1128,457,1576,282,573,1648,16,28,582,768,92,92,817,1515,297,349,97,1523,634,923,76,1174,552,347,750,326,221,149,0,188,791,251,113,1,71,92,393,103,618,335,97,236,418,256,764,435,411,941,74,423,443,27,427,178,262,181,362,156,572,324,684,796,249,288,413,132,29,444,766,1135,1235,208,231,620,1481,228,174,133,918,1825,618,663,22,124,119,52,159,1318,1724,338,243,206,127,436,163,297,617,141,59,65,20,164,11,126,363,150,726,217,1282,1708,118,1055,60,603,852,170,1097,58,213,495,566,673,1607,994,539,1655

200
2021/input/2021/day8.txt Normal file
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@ -0,0 +1,200 @@
bgafcde gfcd agc ebdgac adfceb bafeg efgca cgdfae cg ecadf | fabgced gc agc cdfg
gbdacfe gcabfd cdb dcfba bfacg cgad fadeb feabcg cd gcbfed | bdagcef dcb cdag gbfca
dgcbafe dbfca fbaed be cedb gefad dcfeab facdgb eba gbface | eb gadfcbe cfbad gfbeca
ebc cb aedbf agcef badecg gaebfc bcgf adbcfge ceabf daecgf | cb bce efdab ecbaf
fedbc cebad gfcbd fec gcdfab ecbfga dacgbfe gfed fe gefbdc | bfecag cef egdf fgde
bafedc baefg dbfga daegcb gae egbcfa eg cefab fgce decbafg | abdgf cgfe cedgba befga
dcba fagbed cgbfed dgfbeac da dag acbgde fcaeg becgd acgde | agd bacd dga gbecad
ec aebgcfd fecd bagfec efagd edfgab cgdfea dgcab ecdga eac | ce ec ce gbacefd
aegdbfc fe dacbf aefbgd aecgb cdfe ebadcf ecbfa cbfdga aef | dfce fe fcde afebdgc
bgaf gcbad cagdfb gb dfbeca degfcb bfadc cfgeadb bdg agcde | fdegacb acbefgd bdg gafb
gdecba dcae ec dbfeag bgead dgbce gec cgefab dcbgefa cdbfg | afdbgce agbfde abcgefd ec
gacbefd fgbedc egafdc adf fcbae afedb ad bfeadg adbg dfgeb | ad degcfa ad dfbge
fadebc baef eadfcg ebgdc eda cfgabd afbdc ea edcab cdgbefa | aefb ead ea ebaf
badgecf caefd aebfdc fecbdg fadcg fed de ebad abgecf bceaf | ed gcfebd aebd gfdca
bcdae aefcbg fgdea bf cdabegf adcebf fcbd fbead afb begadc | gbcafe faegbc fba eabdc
bfcdeg ecd eabgc adeg ed dbaec bcfad ecabfg dbgcfea dbacge | de bdfcaeg ecgfbd bcdea
deacf bf eagfdb gfecadb facbeg bfa cbdage abfce fbcg gecab | aebcf ecfagb abegfd bgeac
eag dgbecf gdfae caed dfebgca ea ebcgfa dfbag gecfda dgcfe | ae ea deac fcdega
edbga egdabc cgfdbe gabfe efcdgab gbdefa fb abdf fbg gecfa | cgaebd cbgdea acgfe begdca
cgfedb egbdc agcfd cdagb eabgdf ab abce adb agcebfd dabegc | ba bda abd deagfb
fc agfbce fdebg dgafeb ebfdc cbf cfedgba fdcg gcefdb eacdb | gbfaec fgcbed gbceafd bedagf
bdcgefa acdfbe ed gbcea cfgbad ecbda edfcag afcbd ead bdef | dfbe de dea dea
gfbeca gcefdb fegacd cgbda fbde ed bgedc begcf agdcefb ced | gbacd ced dec bcegfd
dgbacf gfabec agd egdaf badcegf ad ecgaf defgb cade dfegca | cdae dga bgcaef ad
dcf cfadb bcagd afebd fbgdec egfcbda fcea gfeabd fc ebdfac | gabdc ebfad aefc eacbdf
cfgdba fcdab cgfbade adeb afdebc egcfdb de aedfc cfage edf | ed eadb dgebcf cefdabg
bcae befga dgebfc fbagce cbefg agb fcedgab ba bdgacf dgfae | beca dcaegbf gab geafb
dgafbec fedba cbega aebfdc eabfdg bdgfce edc fdac cd adceb | abedf dfeabg dc gdbefc
adegfbc gbedcf cfabd gacedb abcfe fdbacg dgabc df dfga bfd | fdag dbf dafg fd
dfbcag ebfcad ed agecdb bfacd egbfa badfe afbcegd aed cdef | afebd ecdf cfed eadfbgc
fca dbcaf ebdcf fadbg cdbefa adec ac dacbgfe fbcdge cgefba | ac edca edac ca
agdfce cedbfag agc dcbaeg gc bcdga bgdfa cfaebd ebdac cbge | ceadb becg ebadc gc
aefbc aecdg efgcad cdebag bcg agfdbc bceag bdge bg fecdgab | bgecda bcdaeg gb caebf
cfgebd acedf ag gbad gcfbad acg bgecfa bdfcg gbadecf cdfga | dgba dgcbf gac bgfdc
cdgbafe cdgbe gd agde bcaged dfebc geacb cdg bgeacf gbdcfa | efgcba edag gecfdba cgd
bcg bcaf cegdaf dfacg dgacb fgcebda bgdcaf efbcgd bc gadbe | gcb bcg caebdfg cfab
eg cdgfae aecfd fgbaedc gbdfc facdeb cfegd ceag efg efdgab | fge acefbgd egf efg
fcdg gefda cf edabc cedgfa cfa acefd cfebadg gdbafe bgecfa | fc fca cfabged fca
ed bcadegf egdfb fgcdb edbafg facbeg abegf deba fadgec dge | eadb ged eadb adfegb
bgedc cf cefadg ecbgdf gbfae cbdf fcg ecbgad abfgced becfg | bdcf dbceg fgcbde cdbeg
cg gcaf defcag cdefg gdafe dgfabe gec dabegfc bcegad ebdcf | feadg degcf gcaf dcgefa
fdeac gdcebf daecbg bgfec fdeagbc gca gecfa aefcbg fbag ag | ga decfagb ag agfb
bc fbdc bagecdf gfdcab acdgb dcaeg dbgfa cgbaef ebgfda gbc | bdfc cb cfbd fbcd
efagc bafegd abecg eab eb fgbeca gbedcfa bfec fcgade cgbad | abfgdce degacf fcaebg cdabfeg
egbfcd afde ecgab fac fa edabcf cbdagfe afbec cfabgd fdebc | deaf feda cgbdfa fa
gbafd defca ebcf eb cefbad dcebag dcgfae edfab deb bgedcfa | be deb gdbafce be
afdgceb cf gbdeaf acdbfe abcef acf deafb fedgac cdbf cgeba | fac cfdb bdfcae fdcb
cfdba ca afbgd eabc cda afbcdeg cfedb ecfgbd efcgad bcfeda | bfgad abec abce caeb
cfebad debfacg acgfeb cab fedcb afcdb cdae febcdg ac dgbaf | bac ca faecbgd cgbfae
eg dfcegb dge abedcgf facdg bafdgc degacf dafeg agec adebf | egd fegda fedbcag eagdf
age gcbad feacb cgbdfae ge gfbe agebc fcadeg cbafde cgebaf | fagecdb bfeg baecg fceabd
bfcdge fgcbead ebdgac ba dagbfe gab dabc bcegd gface cebga | cbda gbedc egcbafd gab
dbcegfa fadceg fcage bcage gb bdagfc abdec gbfe bgafce bcg | ebfdagc ebfg ebgf egfb
gcdefa bagf dgebf bdefc bgcafde dbefga edabg gfe gf dcgeba | fg efg agfb gebfd
fabdc gdeabf dag gbace adcgb gd eagfcb gaedbc egdfabc egdc | adgbc bcadf gd cedfabg
deagcf ce dfcaeb gfadceb bgade cde daegc cgdafb gadcf efcg | dbaecf fdecbga ce ecd
dfcbag abceg db dgcefa dabec bcegdaf cdb bdef defac cfbdea | gdafec dcb febd bdef
ead fgceabd edgcaf da fgda fgcea ecdgb cgaed fdbace cbagef | ad eafcdb bfecagd ad
ab caefg agbcef efacb gecdfba ecfagd fbdec bdecga cba fgab | eafgc abfg cdagbfe dcageb
afbcge ebafcgd dacegb cfbea afbg agc egcfa ag cgdfe bdceaf | adfbceg fagb gfba aecgbf
acg cdegbf ecfadg cgdab fcbadg cdbgfae ca agedb cbgdf facb | cdeabfg ca afbc dagfec
dca dbfae bagdcf aceg ac afdegc cegfd fcedgb cbdaegf cedfa | dac acge cedgf cfdbgae
gdcafe ega cgbfde cgba afdbe bacegd ga begdc dcebagf edgab | abgc ga bacg bdacge
begfda gdafce fg gdbf gbaced agf decagbf aebdg gabfe cebfa | fag acdbeg agcdfe dgbefca
gfcdbea fecab cbadge afgce gc fgdace fdcg cga eagdf eagbfd | efgacbd gc dgfc dacbeg
gdbefc feadg dbagef afd abde gebfd cefga bdgafc da efdacbg | cbegfda adf bade cdgfbe
aefbdgc eabcfg cgefa degbf cedfg cd cadg cde fgecad fecadb | dbfegca egcdabf gcda dc
baed bcgda abdegc decag ega dgbfaec gacbfe ae cgfde dbacgf | aebd age ea bgdecfa
abecg faegcd egfcd efcga cdaf baedgf efa fcbaedg fcgedb fa | afe af aef fa
abgfce cbedgaf fbedc eacdfb dcf fd faegcd fecba dfba gdceb | faecdg gdceb dfc gcbde
fgce fgadb egdabc edg defbg eg bfced fdbace bdfgeac gbcfde | gdcbfea deg afbedc dgcaeb
eg dgcfe efdgab bfdec aecg acbegfd bdcafg adcfg efg daefgc | fge aecg gfe ecagfdb
acdfe bedcfg abgec cfeabd aedbfcg fecdag fg fcg afecg gdaf | cdaefg fdag cgf gadcfbe
aedc gbdac cbagfe bfdcg gdbfea acb cbgaed ac eadgb gecadfb | gbfdc gbdaec fbgeadc decabg
gbc afgdb cfbdga badgef gadbce egabcdf geacf bcdf cb gabfc | fgaec fcagdeb gbcfa bc
cfgabd cfdbe eafgdc badcfeg dgfab cbag eafbdg gc dfgbc cdg | fagecd cgd afdbge cg
eadcbf fcag gc gbc gadcefb gebad febdgc egcbaf ecbag bacef | dgbfec egadcbf gcfa bcegfda
acbeg acgedb eg dgbfce cdagb cgdbaf gaed bafce cfebadg ecg | dbgac eabcf eabfdgc eagd
bgefda eacg abdcfe eabcd abegcd ebg cbedg cbfdg dgfecab eg | ecag eg ge afebcd
dgecbf bg dfcba abge gadebc edagc bcg ecdfga fbgecad bgcad | cgb gbea ebgcdf gbae
dcabg gdfbca debc aed ed fabeg afdecg gbeda caegbd agbfcde | fcbdgea cedb dea efcdagb
edbcafg cgaed gc gbdc acfebd cge gceabd abecd afegd bgafce | gc facegbd edbcaf cg
gadbce gbdaf acebgf bd abcgfd edfga cdfb gbd cfgab dgafbce | gfdab fdegbac eabcfdg bgcdae
eacgf fb cegbdf dgbfca cfb dfba agfcb cgabd ebcdgfa gedacb | acbdg dbaf ceafg bf
gebac egdacf fdceg daef af gfa dagfbc fcgbead afgce cebfgd | afg bcage gcdeabf cgfea
cdabfg fgbec gcdafe ceafgb egc ec beac febdg bdegcfa fabcg | cafegdb beca ecgbfa bace
gda feabdg ebgaf bgdfc bgfcae bfeagdc edab ad adgbf fceagd | gad ad afgbde dfaebg
bfc bgfced edbfag fcea cf afgbdce cgbda abgef fcgba aebcfg | bcf efac eacf fc
bdeag bgdcf ec ebgdfac gcbde gaec dec cafdeb afdebg cebdag | gcbfd agedb acfdbe ecd
befad gd edgbf bcgafd cebgfd abgcef gfd ecgd cgdfaeb ecfgb | cegd cdeg efadbgc egcdbaf
gfdbae bc cegbfd gadcf cdaefgb gfbed fbcgd beagcd gbc becf | gedcfba edcagb fbcgdae cfbe
ecf cbdaf bdfcaeg fagdec efba bcdfe bfecda gcedb ef cbadgf | ef fbedc dbceg edgfcab
cabde ae ecfdba cbdfe faed dabcg cfbgaed gbfcea begdcf abe | adfe aeb cabgd ae
gefcabd ecabd gebafc ag ecfgbd gacdbf dfcbg fdga cagbd acg | gebcadf gefbac dgaf dagf
bgde efcgd cebgfa dbacgf cgfeb gdc fdaec dfbceg gd fegcadb | efbcadg cgd gbdcfa facebg
gefcbd bgfdcea fg dcbag fbgcd fgeb defcag fcg becfad dfcbe | cefbda cfg fegbdc fg
bcfed bcfdge aedbfg fad decbfa facge cdba efdca ad dbfagce | eabfgd fadce begfdca gecdbaf
edfgbca dbega fdb gfecab fd ebcfda cfda feabd becfa edgbfc | df ebgad cabegfd adcf
daegbc fbacg edfg befdac efbcd edafbgc cdg bcgfd fdegcb gd | dg becdf dbeafcg gadefcb
egdacf gde ed dfebcag acgdfb cfadg agebdf cgeab gecda dfce | fedagc gabfecd eadgfbc cfgebda
dfcea afbde fdgac gefbac eabcdf ace bced ec ebagfd adgbcfe | ce fcdga baecfg cea
adebg gdfcae gb acegd abg begc bdaef bfgcda dgaefbc abgdec | bg cbafgd ecbg gba
bfacde egfadcb cb fcdea eacbf cedb dcgeaf bgadfc abc ebgfa | adfebc dceb bdcafe efdac
faegbd dgfce dcgafe fgadecb bcgd bcfge bfaec gb cdbfeg fgb | aecfb fbg fcgade dafgbec
fgacbe fc ebcadg agfdb fdbca cagbdfe cdfe abcde fcb bfacde | cabed cfde bfdac dgbaf
defabc gfcbe fea bdacfg adgecf fabce ae aebd bfecdga cdafb | fea ea bgfaced bead
dfgae dcafe dce dgebfca abfcd ecab bfcdea gcfebd gafcbd ec | bcdagf cde gbedcfa bfdace
cea gaedfb acdf ac ebacgd gefdabc befda cfbae egcfb efcabd | gcaebfd cbaef dfac ca
gebac befadgc bedcgf cgb gc eagbdc cebaf cadg bgfaed aegdb | cbg cbg cbgadef acdg
gfcdeb bfdegca beac befda bcf dcfga fbcda cb adecfb gbefda | fbc dbafc cbf cfb
cbdfeag becagf acgeb be cgbda gfcdbe efba acfeg ecb eadgcf | aebf eb bagcfe eb
febg aecbdg fedacb ecg ge fbgaedc dfgce afcgd fcbed efcdgb | aedcbg baegcfd ecg bedcf
bcfedg gdbcae febd fcbag fgbcd bd ecdgfa dbc fdcagbe gdcfe | efgbadc fcbedg abfecgd cgbedf
feagc cb dcgeabf fadbgc cgfdae fbdea feagcb bcafe cbeg bac | bgce bc cgadbf cba
efagbd dageb dcgbeaf gc acg gdecab gecd fdbca gbcfea acbgd | eagbd egfabcd gfbace gca
ae cgae dea eacgfd fadgc gfebd afdcbe dfeag acbfgd dacbgef | dgbafc cbdfgae ae ead
egb gcfe abcfdeg begfcd abcdfg dabec eg bdfcg edgcb bedagf | bdecg beg gbdcef dbeac
fcgae dfcebag aefdb geacbf cda dagbcf cd adcfe fedacg gdce | bcdafg adefb fdeba gecbfa
afegd gadfb fcgadeb gbcade gdabef cefgad dfbe bdg fagbc bd | dabegc bfgca bd dgb
dfceba faecd bd afbedgc ebad fcadb bafgc dcb efgdcb gfaedc | faedc bead egcdbaf bd
cgb bdcfeg cg gdbeca cgef gdbcfea febdg fdcgb dafgeb bacfd | cgfe cgb gc gfec
cadgfb cefdbag cg begacf dfgbea bgc adgbf bgcad fdgc eabcd | cg fgceab ebdacgf ecbdgaf
bgdefc decfg cfedga cefgb bfdcea edgfacb bgcd fegba ceb cb | cfgbe dcaefg cbgfe dbcg
gefbda acde gcbaf cd cfd bdcgfae daefg gdcbfe cgefad agdcf | gcebafd efgcda cfd aecd
gedfc cead egbfda fgcdabe de fcgea gfdbc deg cagdef gebacf | deg bfgead gdfbc gde
fbgae bfecg dbcaef gdcaeb cbfdge gbc decgbfa edbfc fdgc gc | gc gbcdef fdcg gfcbe
fc caf cadbe dgabfc gebdfa fecg fagbe cebaf acbegdf cgabfe | egcf ceagbf gcfe ebgafc
abfcd cgbfa bcgafd gadefc abfde cdf dc agfbced cbegfa gcbd | cd cfd fgeacd cdf
bdgae gfbce cbagfd gedbcaf ebcgd gbcefa dc fcde cegdfb dbc | dcegb fgdcbea deabcfg bdc
ebcagf df bgcdefa fdceba cgdf dbacgf eadbg afd abgcf gabfd | ceagdbf dagcbf fd dcfbaeg
dga cadbgef efbcgd bgdca eacd cedbga gdbec gdeabf fbacg da | dag adg edac edgcb
febcg gbadce aedbcf acbed cbgae cag gadb degbcfa ga fcgdae | bgad abdgfec acbed acg
gdcaf dcbfag gdefa abcdg bcfg cf fedgacb dbaegc fcedba afc | cf afc gcfb eafdgbc
gdcaef gcabfd bcefgda cde gcdfb gbecfd ec dfaeb cefbd egbc | egbfdc ce gbdcfa afbcgd
fdea fga fa adcgbef abfcge gbeda fagdb abedgc cgbdf bdefag | fa gaecfb beadgc cbfgd
ba gcbafd decgba bfga fbadc bda dfbeacg ecfgbd cedfa fdbgc | gfab gbdfc adb ba
bd ecdgab aedfg bde fbcae decfba cgafbe fdeab dbfc fdgceba | db dbe cdfb bdgfaec
bd gcefbd ebcd dafbgc ebfgd decgaf edcfg fbd fbaeg gafcdbe | cbeagdf cebd cedb cedb
edagf cdaefbg ead efgdb bgafed cfdag bfea dabgce dfbceg ae | gcafd feab dgfca feba
gecfda bgcdf ba abd edgabf bcdeaf gedfa fdbga baeg abegcdf | ab bad bda fgebcda
egadb bec dbefga cbafg cageb ce ebdgca dceg gdebfca cfbead | ec ebc egdc ecb
cbgfe fadcbg agde cbdge egdacb degcabf bed faebdc ed dcabg | eadg facdbe bcdeg debfac
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bcdfe becgd cbafegd decag geb dgfb bfcade dgcefb bg gfbaec | bdgce gb dcbge gdfb
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ecdfb edafbc fe afdcb efc degcb aedf acbgfd ecgfab fecabdg | fe dbegcaf fe cedgfba
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gfeba aegc cbfega ea bea dfgbe edfacgb fadgbc gbafc aefcdb | gbecfda bcdfag gcea afcegdb
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cfga gbadef decabfg cbged baefcd ca cda dbagf fdbcag dbgca | afgebdc bdgeaf gafc cfag
cgfbd cdafgb gbcead dbg afdb bgecf adfcg ecbgdfa bd gdacfe | fgacd cgdfa bdaf dbg
abf fb febd dbafg febcga gbead egdacb fedgba fbagdce gdcaf | bf fb dbceafg fba
fd dgfabe ecafdg deabcg cbefa fed dbgea bdefa bgdf dbfgeca | fde bdfg fdgb gfeabcd
fgeadb abfed dgfbcea bafgd agcfd gfb bdfaec bg dgbe cegbaf | egdb fegadbc dcgaf bg
fdabc acfbgde dg fcage cdfgab dfebag dga gdafc cdgb eafbcd | gfcad aegdcbf dag afbdc
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dabfg eb egacdfb bfcdga faedc gdeb fbagec aeb bgefad dfeba | bafdcg gfbda gebd be
adb dgeabc bfdg gaecfd afdgc cbdgfa bd dcgeafb dafbc bafce | bd fcagbde defagcb dbfg
fge bagcf dfaebg fgebc eg cdeg fabcedg bedcf dfcegb acfbde | egcd ecgd cebafd cgdaefb
bafdgc gecabf caegf ae beaf gfacb decgf cfedbag aec cdabeg | dcfge ae egcdafb eca
fcgba ebgaf agefd agcdfb beac gdbcfe beg bcdfgae gacfbe eb | cfebgd abecdgf ceab abcfdge
abcgfd bac feabd adcgeb fcgb bc debgcfa fbdac gceafd fagdc | fbcg gcfad afbed cfbda
afdbegc dea abegd agecbd afbgdc dgbfe cabgd afcbed ceag ae | daecbfg cdbag acge ea
ebdcg cbfg cdgebf bge adbec eabgdf baecfdg fgadce gedfc bg | dcbae fbcg beg gfbc
cfbga cefabg ebfca abeg ae bcedfga gbacfd eac bdefc dcafge | abge fedbc bacgf eac
eb aedcg dbfcge cegdbaf gfbe bed dagcbf dacebf dcfgb dbceg | gbef dbe fegb eb
cgfe ced dgeba ce cegad abedcf cdaefg cfagbd cadfg gbcedaf | ecgad gcabefd dfbcgae ce
dbagc afdc dgfaeb bcfage gbedfac cafbdg cdgeb ac cab gdafb | cab dafbcg dacf acdgfeb
dgbae bfa eafgb bafegd fgaec bcfadg fb dbfe egbadc gbecadf | cdegbfa dagfcbe fdeb fab
be aecgdf gbdacef bagfc bdef beagf beg dbefag gedfa cbgade | be eb afegb beg
cfdagb ac gcfdae cbad bfgda bcfedga begcf afc ebafdg cfbga | deagcf abdc ca cagfb
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bacegf gbfca cfa ceab gafeb ca gcfdb gadfec dbafge gbdfaec | caf fbgedac fca afc
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agcbd cegdba feagb fd daf gbfad bacdfg cgdfabe dcefab fgcd | df dagbc fgcd fd
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cbed edgcf ecabdfg ceg cfbgd abgfdc gebfdc ec efbagc gedfa | ec decb ecdb gec
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fbeac gebcaf efa fgce bgfdea dgbcfae gcbdea adcbf ef egacb | gebfacd bfadcge ef eagbc
acdbgfe adfg edfcbg efacb egacf gca dgaceb egdcf ga gefcda | fdga cfgae cga ga
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5999910989987653202456789578978943989898789236987646797656956996532389767996545456910123987532398943
4687899875499854578569897989989659878767679345998334689899897898675478979885432345891435798543459654
3496789986799875989689965395699899767654578959886123899989799999896567898765421256789545899866599975
2345678997898976798798754234579987654323467998765335789975639878987679999854210168998766789978789989
1456789998966987899898655123678999843212345689976547999764526567998989988975432259789987893199899899
0267899869445698999989632016789654954301386797897678998653212349999899867997546345678998992098965789
9469923954236789998679542124578979865716577896779989998632101239877645456789667456799659789987654567
8999919878997999997568993295689899876897679954567896987543212349765432347898778568892345694398767678
7887899989889999876457789989789789998998789343679964597654343598654321236789889678901299789459998789
6576789999768798765354699979998679789659893212489873298785764789965446545899998799999987999567999893
5454678988657669989212989767897578679943954401678994569876989999876557656999029891987686898978998942
6213469976543457898929876456896434578894975626899789978989899997998969797898998932396545657899997653
7534578954332598997899954345965323456789876545679679899998789896989979898967987543987432346998789767
8945789764101239876799875697894212399899998666789456789989679765879989999656798654987621499887679988
9767897653214398785789976989976201987989109877891345679765578954567898989545659765699710987674567899
9878999764323987674567897978943219896579299989943456998674458943456967878931349889799831298543456789
6989789975439876563456999867894329785498989998657569876533267932678955467893456992987542975432545699
5497569876798765442499998758965498674356678939978998975420157893489543248954567891598659864321234568
4323456988999654321378959967976987543234568921989987654321345789599432139896689932398769765434656899
5435567899998766562457949878987898656045679210191099865432467897678945546789796546459879876545767899

140
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//! --- Day 1: Sonar Sweep ---
//! You're minding your own business on a ship at sea when the overboard alarm goes off! You rush to see if you can help. Apparently, one of the Elves tripped and accidentally sent the sleigh keys flying into the ocean!
//!
//! Before you know it, you're inside a submarine the Elves keep ready for situations like this. It's covered in Christmas lights (because of course it is), and it even has an experimental antenna that should be able to track the keys if you can boost its signal strength high enough; there's a little meter that indicates the antenna's signal strength by displaying 0-50 stars.
//!
//! Your instincts tell you that in order to save Christmas, you'll need to get all fifty stars by December 25th.
//!
//! Collect stars by solving puzzles. Two puzzles will be made available on each day in the Advent calendar; the second puzzle is unlocked when you complete the first. Each puzzle grants one star. Good luck!
//!
//! As the submarine drops below the surface of the ocean, it automatically performs a sonar sweep of the nearby sea floor. On a small screen, the sonar sweep report (your puzzle input) appears: each line is a measurement of the sea floor depth as the sweep looks further and further away from the submarine.
//!
//! For example, suppose you had the following report:
//!
//! 199
//! 200
//! 208
//! 210
//! 200
//! 207
//! 240
//! 269
//! 260
//! 263
//! This report indicates that, scanning outward from the submarine, the sonar sweep found depths of 199, 200, 208, 210, and so on.
//!
//! The first order of business is to figure out how quickly the depth increases, just so you know what you're dealing with - you never know if the keys will get carried into deeper water by an ocean current or a fish or something.
//!
//! To do this, count the number of times a depth measurement increases from the previous measurement. (There is no measurement before the first measurement.) In the example above, the changes are as follows:
//!
//! 199 (N/A - no previous measurement)
//! 200 (increased)
//! 208 (increased)
//! 210 (increased)
//! 200 (decreased)
//! 207 (increased)
//! 240 (increased)
//! 269 (increased)
//! 260 (decreased)
//! 263 (increased)
//! In this example, there are 7 measurements that are larger than the previous measurement.
//!
//! How many measurements are larger than the previous measurement?
//! --- Part Two ---
//! Considering every single measurement isn't as useful as you expected: there's just too much noise in the data.
//!
//! Instead, consider sums of a three-measurement sliding window. Again considering the above example:
//!
//! 199 A
//! 200 A B
//! 208 A B C
//! 210 B C D
//! 200 E C D
//! 207 E F D
//! 240 E F G
//! 269 F G H
//! 260 G H
//! 263 H
//! Start by comparing the first and second three-measurement windows. The measurements in the first window are marked A (199, 200, 208); their sum is 199 + 200 + 208 = 607. The second window is marked B (200, 208, 210); its sum is 618. The sum of measurements in the second window is larger than the sum of the first, so this first comparison increased.
//!
//! Your goal now is to count the number of times the sum of measurements in this sliding window increases from the previous sum. So, compare A with B, then compare B with C, then C with D, and so on. Stop when there aren't enough measurements left to create a new three-measurement sum.
//!
//! In the above example, the sum of each three-measurement window is as follows:
//!
//! A: 607 (N/A - no previous sum)
//! B: 618 (increased)
//! C: 618 (no change)
//! D: 617 (decreased)
//! E: 647 (increased)
//! F: 716 (increased)
//! G: 769 (increased)
//! H: 792 (increased)
//! In this example, there are 5 sums that are larger than the previous sum.
//!
//! Consider sums of a three-measurement sliding window. How many sums are larger than the previous sum?
use anyhow::Result;
use aoc_runner_derive::{aoc, aoc_generator};
/// Reads text file containing one integer per line, and parses them into `Vec<u32>`.
#[aoc_generator(day1)]
fn parse(input: &str) -> Result<Vec<u32>> {
input.split('\n').map(|s| Ok(s.parse()?)).collect()
}
#[aoc(day1, part1)]
fn part1(depths: &[u32]) -> Result<u32> {
Ok(depths
.windows(2)
.map(|s| if s[0] < s[1] { 1 } else { 0 })
.sum())
}
#[aoc(day1, part2)]
fn part2(depths: &[u32]) -> Result<u32> {
let sums: Vec<u32> = depths.windows(3).map(|s| s.iter().sum()).collect();
Ok(sums
.windows(2)
.map(|s| if s[0] < s[1] { 1 } else { 0 })
.sum())
}
#[test]
fn test_part1() -> Result<()> {
assert_eq!(
part1(&parse(
r#"199
200
208
210
200
207
240
269
260
263"#
)?)?,
7
);
Ok(())
}
#[test]
fn test_part2() -> Result<()> {
assert_eq!(
part2(&parse(
r#"199
200
208
210
200
207
240
269
260
263"#
)?)?,
5
);
Ok(())
}

265
2021/src/day10.rs Normal file
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//! --- Day 10: Syntax Scoring ---
//! You ask the submarine to determine the best route out of the deep-sea cave, but it only replies:
//!
//! Syntax error in navigation subsystem on line: all of them
//! All of them?! The damage is worse than you thought. You bring up a copy of the navigation subsystem (your puzzle input).
//!
//! The navigation subsystem syntax is made of several lines containing chunks. There are one or more chunks on each line, and chunks contain zero or more other chunks. Adjacent chunks are not separated by any delimiter; if one chunk stops, the next chunk (if any) can immediately start. Every chunk must open and close with one of four legal pairs of matching characters:
//!
//! If a chunk opens with (, it must close with ).
//! If a chunk opens with [, it must close with ].
//! If a chunk opens with {, it must close with }.
//! If a chunk opens with <, it must close with >.
//! So, () is a legal chunk that contains no other chunks, as is []. More complex but valid chunks include ([]), {()()()}, <([{}])>, [<>({}){}[([])<>]], and even (((((((((()))))))))).
//!
//! Some lines are incomplete, but others are corrupted. Find and discard the corrupted lines first.
//!
//! A corrupted line is one where a chunk closes with the wrong character - that is, where the characters it opens and closes with do not form one of the four legal pairs listed above.
//!
//! Examples of corrupted chunks include (], {()()()>, (((()))}, and <([]){()}[{}]). Such a chunk can appear anywhere within a line, and its presence causes the whole line to be considered corrupted.
//!
//! For example, consider the following navigation subsystem:
//!
//! [({(<(())[]>[[{[]{<()<>>
//! [(()[<>])]({[<{<<[]>>(
//! {([(<{}[<>[]}>{[]{[(<()>
//! (((({<>}<{<{<>}{[]{[]{}
//! [[<[([]))<([[{}[[()]]]
//! [{[{({}]{}}([{[{{{}}([]
//! {<[[]]>}<{[{[{[]{()[[[]
//! [<(<(<(<{}))><([]([]()
//! <{([([[(<>()){}]>(<<{{
//! <{([{{}}[<[[[<>{}]]]>[]]
//! Some of the lines aren't corrupted, just incomplete; you can ignore these lines for now. The remaining five lines are corrupted:
//!
//! {([(<{}[<>[]}>{[]{[(<()> - Expected ], but found } instead.
//! [[<[([]))<([[{}[[()]]] - Expected ], but found ) instead.
//! [{[{({}]{}}([{[{{{}}([] - Expected ), but found ] instead.
//! [<(<(<(<{}))><([]([]() - Expected >, but found ) instead.
//! <{([([[(<>()){}]>(<<{{ - Expected ], but found > instead.
//! Stop at the first incorrect closing character on each corrupted line.
//!
//! Did you know that syntax checkers actually have contests to see who can get the high score for syntax errors in a file? It's true! To calculate the syntax error score for a line, take the first illegal character on the line and look it up in the following table:
//!
//! ): 3 points.
//! ]: 57 points.
//! }: 1197 points.
//! >: 25137 points.
//! In the above example, an illegal ) was found twice (2*3 = 6 points), an illegal ] was found once (57 points), an illegal } was found once (1197 points), and an illegal > was found once (25137 points). So, the total syntax error score for this file is 6+57+1197+25137 = 26397 points!
//!
//! Find the first illegal character in each corrupted line of the navigation subsystem. What is the total syntax error score for those errors?
//!
//! --- Part Two ---
//! Now, discard the corrupted lines. The remaining lines are incomplete.
//!
//! Incomplete lines don't have any incorrect characters - instead, they're missing some closing characters at the end of the line. To repair the navigation subsystem, you just need to figure out the sequence of closing characters that complete all open chunks in the line.
//!
//! You can only use closing characters (), ], }, or >), and you must add them in the correct order so that only legal pairs are formed and all chunks end up closed.
//!
//! In the example above, there are five incomplete lines:
//!
//!
//! [({(<(())[]>[[{[]{<()<>> - Complete by adding }}]])})].
//! [(()[<>])]({[<{<<[]>>( - Complete by adding )}>]}).
//! (((({<>}<{<{<>}{[]{[]{} - Complete by adding }}>}>)))).
//! {<[[]]>}<{[{[{[]{()[[[] - Complete by adding ]]}}]}]}>.
//! <{([{{}}[<[[[<>{}]]]>[]] - Complete by adding ])}>.
//! Did you know that autocomplete tools also have contests? It's true! The score is determined by considering the completion string character-by-character. Start with a total score of 0. Then, for each character, multiply the total score by 5 and then increase the total score by the point value given for the character in the following table:
//!
//! ): 1 point.
//! ]: 2 points.
//! }: 3 points.
//! >: 4 points.
//! So, the last completion string above - ])}> - would be scored as follows:
//!
//! Start with a total score of 0.
//! Multiply the total score by 5 to get 0, then add the value of ] (2) to get a new total score of 2.
//! Multiply the total score by 5 to get 10, then add the value of ) (1) to get a new total score of 11.
//! Multiply the total score by 5 to get 55, then add the value of } (3) to get a new total score of 58.
//! Multiply the total score by 5 to get 290, then add the value of > (4) to get a new total score of 294.
//! The five lines' completion strings have total scores as follows:
//!
//! }}]])})] - 288957 total points.
//! )}>]}) - 5566 total points.
//! }}>}>)))) - 1480781 total points.
//! ]]}}]}]}> - 995444 total points.
//! ])}> - 294 total points.
//! Autocomplete tools are an odd bunch: the winner is found by sorting all of the scores and then taking the middle score. (There will always be an odd number of scores to consider.) In this example, the middle score is 288957 because there are the same number of scores smaller and larger than it.
//!
//! Find the completion string for each incomplete line, score the completion strings, and sort the scores. What is the middle score?
use std::collections::HashMap;
use anyhow::Result;
use aoc_runner_derive::aoc;
fn corrupt_score(b: u8) -> u64 {
match b {
b')' => 3,
b']' => 57,
b'}' => 1197,
b'>' => 25137,
_ => panic!("unknown illegal character '{}'", b),
}
}
fn corrupted(line: &str) -> Option<u8> {
let pairs: HashMap<_, _> = vec![
(b'(', b')'),
(b'{', b'}'),
(b'[', b']'),
(b'<', b'>'),
(b')', b'('),
(b'}', b'{'),
(b']', b'['),
(b'>', b'<'),
]
.into_iter()
.collect();
let mut stack = Vec::new();
for b in line.as_bytes() {
match b {
b'[' | b'(' | b'{' | b'<' => stack.push(b),
b']' | b')' | b'}' | b'>' => {
let c = pairs[stack.pop().unwrap()];
if c != *b {
return Some(*b);
}
}
_ => panic!("Unexpected delimiter '{}'", b),
}
}
None
}
fn incomplete_score(bs: &[u8]) -> u64 {
bs.iter().fold(0, |acc, b| {
acc * 5
+ match b {
b')' => 1,
b']' => 2,
b'}' => 3,
b'>' => 4,
_ => panic!("unknown illegal character '{}'", b),
}
})
}
fn incompleted(line: &str) -> Vec<u8> {
let pairs: HashMap<_, _> = vec![
(b'(', b')'),
(b'{', b'}'),
(b'[', b']'),
(b'<', b'>'),
(b')', b'('),
(b'}', b'{'),
(b']', b'['),
(b'>', b'<'),
]
.into_iter()
.collect();
let mut stack = Vec::new();
for b in line.as_bytes() {
match b {
b'[' | b'(' | b'{' | b'<' => stack.push(b),
b']' | b')' | b'}' | b'>' => {
stack.pop();
}
_ => panic!("Unexpected delimiter '{}'", b),
}
}
stack.iter().rev().map(|b| pairs[b]).collect()
}
#[aoc(day10, part1)]
fn part1(input: &str) -> Result<u64> {
Ok(input.lines().filter_map(corrupted).map(corrupt_score).sum())
}
#[aoc(day10, part2)]
fn part2(input: &str) -> Result<u64> {
let mut scores: Vec<_> = input
.lines()
.filter(|l| corrupted(l).is_none())
.filter_map(|l| {
let r = incompleted(l);
if r.is_empty() {
None
} else {
Some(r)
}
})
.map(|bs| incomplete_score(&bs))
.collect();
scores.sort_unstable();
Ok(scores[scores.len() / 2])
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_part1() -> Result<()> {
let input = r#"
[({(<(())[]>[[{[]{<()<>>
[(()[<>])]({[<{<<[]>>(
{([(<{}[<>[]}>{[]{[(<()>
(((({<>}<{<{<>}{[]{[]{}
[[<[([]))<([[{}[[()]]]
[{[{({}]{}}([{[{{{}}([]
{<[[]]>}<{[{[{[]{()[[[]
[<(<(<(<{}))><([]([]()
<{([([[(<>()){}]>(<<{{
<{([{{}}[<[[[<>{}]]]>[]]
"#
.trim();
assert_eq!(part1(input)?, 26397);
Ok(())
}
#[test]
fn test_incompleted() {
assert_eq!(
incompleted("[({(<(())[]>[[{[]{<()<>>"),
b"}}]])})]".to_vec()
);
assert_eq!(incompleted("[(()[<>])]({[<{<<[]>>("), b")}>]})".to_vec());
assert_eq!(
incompleted("(((({<>}<{<{<>}{[]{[]{}"),
b"}}>}>))))".to_vec()
);
assert_eq!(
incompleted("{<[[]]>}<{[{[{[]{()[[[]"),
b"]]}}]}]}>".to_vec()
);
assert_eq!(incompleted("<{([{{}}[<[[[<>{}]]]>[]]"), b"])}>".to_vec());
}
#[test]
fn test_incomplete_score() {
assert_eq!(incomplete_score(&b"}}]])})]".to_vec()), 288957);
assert_eq!(incomplete_score(&b")}>]})".to_vec()), 5566);
assert_eq!(incomplete_score(&b"}}>}>))))".to_vec()), 1480781);
assert_eq!(incomplete_score(&b"]]}}]}]}>".to_vec()), 995444);
assert_eq!(incomplete_score(&b"])}>".to_vec()), 294);
}
#[test]
fn test_part2() -> Result<()> {
let input = r#"
[({(<(())[]>[[{[]{<()<>>
[(()[<>])]({[<{<<[]>>(
{([(<{}[<>[]}>{[]{[(<()>
(((({<>}<{<{<>}{[]{[]{}
[[<[([]))<([[{}[[()]]]
[{[{({}]{}}([{[{{{}}([]
{<[[]]>}<{[{[{[]{()[[[]
[<(<(<(<{}))><([]([]()
<{([([[(<>()){}]>(<<{{
<{([{{}}[<[[[<>{}]]]>[]]
"#
.trim();
assert_eq!(part2(input)?, 288957);
Ok(())
}
}

444
2021/src/day11.rs Normal file
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@ -0,0 +1,444 @@
use std::{
collections::HashSet,
convert::Infallible,
fmt::{Debug, Error, Formatter},
ops::{Index, IndexMut},
str::FromStr,
};
use anyhow::Result;
use aoc_runner_derive::aoc;
struct Image {
width: usize,
height: usize,
pixels: Vec<u8>,
flashes: usize,
}
impl Image {
fn kernel3x3<F>(&mut self, (x, y): (usize, usize), func: F)
where
F: Fn(u8) -> u8,
{
if x > 0 {
self[(x - 1, y)] = func(self[(x - 1, y)]);
if y > 0 {
self[(x - 1, y - 1)] = func(self[(x - 1, y - 1)]);
}
if y < self.height - 1 {
self[(x - 1, y + 1)] = func(self[(x - 1, y + 1)]);
}
}
if y > 0 {
self[(x, y - 1)] = func(self[(x, y - 1)]);
}
if y < self.height - 1 {
self[(x, y + 1)] = func(self[(x, y + 1)]);
}
if x < self.width - 1 {
self[(x + 1, y)] = func(self[(x + 1, y)]);
if y > 0 {
self[(x + 1, y - 1)] = func(self[(x + 1, y - 1)]);
}
if y < self.height - 1 {
self[(x + 1, y + 1)] = func(self[(x + 1, y + 1)]);
}
}
}
fn step(&mut self) {
self.pixels.iter_mut().for_each(|p| *p += 1);
let mut flashed: HashSet<(usize, usize)> = HashSet::new();
loop {
let mut flashes = 0;
// Apply the effect of a flash on neighbors
let mut need_to_flash = Vec::new();
for y in 0..self.height {
for x in 0..self.width {
if self[(x, y)] > 9 && !flashed.contains(&(x, y)) {
need_to_flash.push((x, y));
}
}
}
for (x, y) in need_to_flash {
self.kernel3x3((x, y), |x| x + 1);
flashed.insert((x, y));
flashes += 1;
}
if flashes == 0 {
break;
}
self.flashes += flashes;
}
self.pixels.iter_mut().for_each(|p| {
if *p > 9 {
*p = 0
}
});
}
fn sync(&self) -> bool {
let sentinel = self[(0, 0)];
for p in &self.pixels {
if *p != sentinel {
return false;
}
}
true
}
}
impl PartialEq for Image {
fn eq(&self, other: &Self) -> bool {
self.width == other.width && self.height == other.height && self.pixels == other.pixels
}
}
impl Debug for Image {
fn fmt(&self, f: &mut Formatter<'_>) -> Result<(), Error> {
writeln!(f)?;
for y in 0..self.height {
for x in 0..self.width {
write!(f, "{:3}", self[(x, y)])?;
}
writeln!(f)?;
}
Ok(())
}
}
impl FromStr for Image {
type Err = Infallible;
fn from_str(s: &str) -> Result<Self, Self::Err> {
let rows: Vec<_> = s.lines().collect();
let width = rows[0].len();
let height = rows.len();
let pixels = rows
.iter()
.flat_map(|row| row.as_bytes().iter().map(|b| b - b'0'))
.collect();
Ok(Image {
width,
height,
pixels,
flashes: 0,
})
}
}
impl Index<(usize, usize)> for Image {
type Output = u8;
fn index(&self, (x, y): (usize, usize)) -> &Self::Output {
&self.pixels[x + y * self.width]
}
}
impl IndexMut<(usize, usize)> for Image {
fn index_mut(&mut self, (x, y): (usize, usize)) -> &mut Self::Output {
&mut self.pixels[x + y * self.width]
}
}
#[aoc(day11, part1)]
fn part1(input: &str) -> Result<usize> {
let mut im: Image = input.parse()?;
for _ in 0..100 {
im.step();
}
if im.width > 11 {
assert!(im.flashes > 1355);
}
Ok(im.flashes)
}
#[aoc(day11, part2)]
fn part2(input: &str) -> Result<usize> {
let mut im: Image = input.parse()?;
for i in 1.. {
im.step();
if im.sync() {
return Ok(i);
}
}
unreachable!();
}
#[cfg(test)]
mod tests {
use super::*;
use pretty_assertions::assert_eq;
#[test]
fn test_part1() -> Result<()> {
let input = r#"
5483143223
2745854711
5264556173
6141336146
6357385478
4167524645
2176841721
6882881134
4846848554
5283751526
"#
.trim();
assert_eq!(part1(input)?, 1656);
Ok(())
}
#[test]
fn test_step() -> Result<()> {
let mut im: Image = r#"
11111
19991
19191
19991
11111
"#
.trim()
.parse()?;
let step1: Image = r#"
34543
40004
50005
40004
34543
"#
.trim()
.parse()?;
let step2: Image = r#"
45654
51115
61116
51115
45654
"#
.trim()
.parse()?;
im.step();
assert_eq!(im, step1);
im.step();
assert_eq!(im, step2);
Ok(())
}
#[test]
fn test_many_iterations() -> Result<()> {
let mut im: Image = r#"
5483143223
2745854711
5264556173
6141336146
6357385478
4167524645
2176841721
6882881134
4846848554
5283751526
"#
.trim()
.parse()?;
let step1: Image = r#"
6594254334
3856965822
6375667284
7252447257
7468496589
5278635756
3287952832
7993992245
5957959665
6394862637
"#
.trim()
.parse()?;
let step2: Image = r#"
8807476555
5089087054
8597889608
8485769600
8700908800
6600088989
6800005943
0000007456
9000000876
8700006848
"#
.trim()
.parse()?;
let step3: Image = r#"
0050900866
8500800575
9900000039
9700000041
9935080063
7712300000
7911250009
2211130000
0421125000
0021119000
"#
.trim()
.parse()?;
let step4: Image = r#"
2263031977
0923031697
0032221150
0041111163
0076191174
0053411122
0042361120
5532241122
1532247211
1132230211
"#
.trim()
.parse()?;
let step5: Image = r#"
4484144000
2044144000
2253333493
1152333274
1187303285
1164633233
1153472231
6643352233
2643358322
2243341322
"#
.trim()
.parse()?;
let step6: Image = r#"
5595255111
3155255222
3364444605
2263444496
2298414396
2275744344
2264583342
7754463344
3754469433
3354452433
"#
.trim()
.parse()?;
let step7: Image = r#"
6707366222
4377366333
4475555827
3496655709
3500625609
3509955566
3486694453
8865585555
4865580644
4465574644
"#
.trim()
.parse()?;
let step8: Image = r#"
7818477333
5488477444
5697666949
4608766830
4734946730
4740097688
6900007564
0000009666
8000004755
6800007755
"#
.trim()
.parse()?;
let step9: Image = r#"
9060000644
7800000976
6900000080
5840000082
5858000093
6962400000
8021250009
2221130009
9111128097
7911119976
"#
.trim()
.parse()?;
let step10: Image = r#"
0481112976
0031112009
0041112504
0081111406
0099111306
0093511233
0442361130
5532252350
0532250600
0032240000
"#
.trim()
.parse()?;
let step10_flashes = 204;
im.step();
assert_eq!(im, step1, "step1");
im.step();
assert_eq!(im, step2, "step2");
im.step();
assert_eq!(im, step3, "step3");
im.step();
assert_eq!(im, step4, "step4");
im.step();
assert_eq!(im, step5, "step5");
im.step();
assert_eq!(im, step6, "step6");
im.step();
assert_eq!(im, step7, "step7");
im.step();
assert_eq!(im, step8, "step8");
im.step();
assert_eq!(im, step9, "step9");
im.step();
assert_eq!(im, step10, "step10");
assert_eq!(im.flashes, step10_flashes, "step10 wrong flashes");
Ok(())
}
#[test]
fn test_part2() -> Result<()> {
let input = r#"
5483143223
2745854711
5264556173
6141336146
6357385478
4167524645
2176841721
6882881134
4846848554
5283751526
"#
.trim();
assert_eq!(part2(input)?, 195);
Ok(())
}
}

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use std::collections::HashMap;
use anyhow::Result;
use aoc_runner_derive::aoc;
fn search(node: &str, nodes: &HashMap<&str, Vec<&str>>, path: String, paths: &mut Vec<String>) {
if node == "end" {
paths.push(path);
return;
}
for neighbor in &nodes[node] {
// If lowercase.
if neighbor.as_bytes()[0] & 0x20 != 0 && path.contains(neighbor) {
continue;
}
search(neighbor, nodes, format!("{},{}", path, neighbor), paths);
}
}
fn paths(nodes: &HashMap<&str, Vec<&str>>) -> usize {
let mut paths = Vec::new();
search("start", nodes, "start".to_string(), &mut paths);
paths.len()
}
#[aoc(day12, part1)]
fn part1(input: &str) -> Result<usize> {
let mut nodes = HashMap::new();
input.lines().for_each(|p| {
let (n1, n2) = p.split_once('-').expect("missing dash");
nodes.entry(n1).or_insert_with(Vec::new).push(n2);
nodes.entry(n2).or_insert_with(Vec::new).push(n1);
});
Ok(paths(&nodes))
}
fn search2<'a>(
node: &str,
nodes: &HashMap<&'a str, Vec<&'a str>>,
path: &[&'a str],
paths: &mut Vec<Vec<&'a str>>,
double: &'a str,
smalls: &[&'a str],
) {
if node == "end" {
paths.push(path.to_vec());
return;
}
for neighbor in &nodes[node] {
// If lowercase.
if neighbor.as_bytes()[0] & 0x20 != 0 {
if neighbor == &double {
// Allow two passes for this small node.
if path.iter().filter(|p| p == &neighbor).count() >= 2 {
continue;
}
} else {
// Only allow one pass for this small node.
if path.contains(neighbor) {
continue;
}
}
}
let mut child_path = path.to_vec();
child_path.push(neighbor);
search2(neighbor, nodes, &child_path, paths, double, smalls);
}
}
fn paths2(nodes: &HashMap<&str, Vec<&str>>) -> usize {
let mut paths = Vec::new();
let smalls: Vec<_> = nodes
.keys()
.filter(|n| n.as_bytes()[0] & 0x20 != 0)
.filter(|&n| n != &"start" && n != &"end")
.cloned()
.collect();
for double in &smalls {
search2(
"start",
nodes,
&["start"],
&mut paths,
double,
smalls.as_slice(),
);
}
paths.sort();
paths.dedup();
paths.len()
}
#[aoc(day12, part2)]
fn part2(input: &str) -> Result<usize> {
let mut nodes = HashMap::new();
input.lines().for_each(|p| {
let (n1, n2) = p.split_once('-').expect("missing dash");
nodes.entry(n1).or_insert_with(Vec::new).push(n2);
nodes.entry(n2).or_insert_with(Vec::new).push(n1);
});
Ok(paths2(&nodes))
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_part1() -> Result<()> {
let input = r#"
start-A
start-b
A-c
A-b
b-d
A-end
b-end
"#
.trim();
assert_eq!(part1(input)?, 10);
Ok(())
}
#[test]
fn test_part2() -> Result<()> {
let input = r#"
start-A
start-b
A-c
A-b
b-d
A-end
b-end
"#
.trim();
assert_eq!(part2(input)?, 36);
Ok(())
}
}

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use advent::prelude::*;
use aoc_runner_derive::aoc;
struct Image {
width: usize,
height: usize,
pixels: Vec<u8>,
}
impl Image {
fn new(width: usize, height: usize) -> Image {
let pixels = vec![0; width * height];
Image {
width,
height,
pixels,
}
}
fn new_with_pts(width: usize, height: usize, pts: &[(usize, usize)]) -> Image {
let pixels = vec![0; width * height];
let mut im = Image {
width,
height,
pixels,
};
dbg!(&width, &height);
pts.iter().for_each(|xy| im[*xy] = 1);
im
}
fn fold_y(&self, y_axis: usize) -> Image {
println!("fold_y @ {}", y_axis);
let mut im = Image::new(self.width, y_axis);
let odd = self.height % 2;
for y in 0..self.height {
for x in 0..self.width {
//dbg!( self.width, self.height, x, y, y_axis, (y % y_axis), self.pixels.len(), im.pixels.len());
if self[(x, y)] > 0 {
if y > y_axis {
im[(x, self.height - y - odd)] = self[(x, y)];
} else {
im[(x, y)] = self[(x, y)];
}
}
}
}
im
}
fn fold_x(&self, x_axis: usize) -> Image {
let odd = self.width % 2;
println!("fold_x @ {}", x_axis);
for y in 0..self.height {
assert_eq!(
self[(x_axis, y)],
0,
"w,h {},{} x_axis {}",
self.width,
self.height,
x_axis,
);
}
let mut im = Image::new(x_axis, self.height);
for y in 0..self.height {
for x in 0..self.width {
if self[(x, y)] > 0 {
if x > x_axis {
im[(self.width - x - odd, y)] = self[(x, y)];
} else {
im[(x, y)] = self[(x, y)];
}
}
}
}
im
}
fn count(&self) -> usize {
self.pixels.iter().filter(|&n| *n != 0).count()
}
}
impl Debug for Image {
fn fmt(&self, f: &mut Formatter<'_>) -> Result<(), Error> {
writeln!(f)?;
for y in 0..self.height {
for x in 0..self.width {
if self[(x, y)] > 0 {
write!(f, "#")?;
} else {
write!(f, ".")?;
}
}
writeln!(f)?;
}
Ok(())
}
}
impl Index<(usize, usize)> for Image {
type Output = u8;
fn index(&self, (x, y): (usize, usize)) -> &Self::Output {
&self.pixels[x + y * self.width]
}
}
impl IndexMut<(usize, usize)> for Image {
fn index_mut(&mut self, (x, y): (usize, usize)) -> &mut Self::Output {
//dbg!(self.width, self.height, x, y, self.pixels.len());
&mut self.pixels[x + y * self.width]
}
}
#[aoc(day13, part1)]
fn part1(input: &str) -> Result<usize> {
let (pts, folds) = input.split_once("\n\n").unwrap();
let pts: Vec<(usize, usize)> = pts
.lines()
.map(|l| l.split_once(',').unwrap())
.map(|(x, y)| (x.parse().unwrap(), y.parse().unwrap()))
.collect();
let folds: Vec<_> = folds
.lines()
.map(|l| l.split(' ').nth(2).unwrap().split_once('=').unwrap())
.map(|(axis, idx)| (axis, idx.parse().unwrap()))
.collect();
let (maxx, maxy) = pts
.iter()
.fold((0, 0), |(maxx, maxy), (x, y)| (maxx.max(*x), maxy.max(*y)));
let mut im = Image::new_with_pts(maxx + 1, maxy + 1, &pts);
//dbg!(&im);
for (axis, idx) in folds.iter().take(1) {
im = if *axis == "y" {
im.fold_y(*idx)
} else {
im.fold_x(*idx)
};
}
//assert!(im.count() < 896);
dbg!(&im);
Ok(im.count())
}
#[aoc(day13, part2)]
fn part2(input: &str) -> Result<usize> {
let (pts, folds) = input.split_once("\n\n").unwrap();
let pts: Vec<(usize, usize)> = pts
.lines()
.map(|l| l.split_once(',').unwrap())
.map(|(x, y)| (x.parse().unwrap(), y.parse().unwrap()))
.collect();
let folds: Vec<_> = folds
.lines()
.map(|l| l.split(' ').nth(2).unwrap().split_once('=').unwrap())
.map(|(axis, idx)| (axis, idx.parse().unwrap()))
.collect();
let (maxx, maxy) = pts
.iter()
.fold((0, 0), |(maxx, maxy), (x, y)| (maxx.max(*x), maxy.max(*y)));
let mut im = Image::new_with_pts(maxx + 1, maxy + 1, &pts);
//dbg!(&im);
for (axis, idx) in folds.iter() {
im = if *axis == "y" {
im.fold_y(*idx)
} else {
im.fold_x(*idx)
};
}
dbg!(&im);
Ok(im.count())
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_part1() -> Result<()> {
let input = r#"
6,10
0,14
9,10
0,3
10,4
4,11
6,0
6,12
4,1
0,13
10,12
3,4
3,0
8,4
1,10
2,14
8,10
9,0
fold along y=7
fold along x=5
"#
.trim();
assert_eq!(part1(input)?, 17);
Ok(())
}
#[test]
fn test_fold_x() -> Result<()> {
let input = r#"
0,0
1,1
3,3
4,4
fold along x=2
fold along y=2
"#
.trim();
let (pts, folds) = input.split_once("\n\n").unwrap();
let pts: Vec<(usize, usize)> = pts
.lines()
.map(|l| l.split_once(',').unwrap())
.map(|(x, y)| (x.parse().unwrap(), y.parse().unwrap()))
.collect();
let folds: Vec<_> = folds
.lines()
.map(|l| l.split(' ').nth(2).unwrap().split_once('=').unwrap())
.map(|(axis, idx)| (axis, idx.parse().unwrap()))
.collect();
let (maxx, maxy) = pts
.iter()
.fold((0, 0), |(maxx, maxy), (x, y)| (maxx.max(*x), maxy.max(*y)));
let mut im = Image::new_with_pts(maxx + 1, maxy + 1, &pts);
dbg!(&im);
for (axis, idx) in folds.iter() {
im = if *axis == "y" {
im.fold_y(*idx)
} else {
im.fold_x(*idx)
};
}
dbg!(&im);
//assert_eq!(im.count(), 17);
Ok(())
}
/*
#[test]
fn test_part2()->Result<()> {
let input = r#"
"#
.trim();
assert_eq!(part2(input)?, usize::MAX);
Ok(())
}
*/
}

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use std::collections::HashMap;
use anyhow::Result;
use aoc_runner_derive::aoc;
struct TupleWindow<I, T>
where
I: Iterator<Item = T>,
{
iter: I,
prev: Option<T>,
next: Option<T>,
}
impl<I, T> TupleWindow<I, T>
where
I: Iterator<Item = T>,
{
fn new(iter: I, rules: &HashMap<&[u8], u8>) -> Self {
TupleWindow {
iter,
prev: None,
next: None,
}
}
}
impl<I, T> Iterator for TupleWindow<I, T>
where
I: Iterator<Item = T>,
{
type Item = T;
fn next(&mut self) -> Option<Self::Item> {
if self.prev.is_none() {
self.prev = self.iter.next();
}
/*
template.next() {
template.flat_map(|y|
let z = rules[xy];
res[i * 2] = xy[0];
res[i * 2 + 1] = z;
res[i * 2 + 2] = xy[1];
});
//dbg!(String::from_utf8_lossy(&res));
res
*/
if let Some(next) = self.iter.next() {
let prev = self.prev.take();
self.prev = Some(next);
return prev;
}
None
}
}
fn expand_it<'a, I: 'a + Iterator<Item = &'a u8>>(
template: I,
rules: &HashMap<&[u8], u8>,
) -> impl Iterator<Item = &'a u8> {
TupleWindow::new(template, rules)
}
fn forty_steps<'a, I: 'a + Iterator<Item = &'a u8>>(it: I, rules: &HashMap<&[u8], u8>) -> usize {
return 0;
//let it = (1..40).fold(it, |acc, _| expand_it(acc, &rules));
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(
expand_it(it, &rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules),
&rules,
)
.count()
}
fn expand(template: &[u8], rules: &HashMap<&[u8], u8>) -> Vec<u8> {
let mut res = vec![0u8; template.len() * 2 - 1];
template.windows(2).enumerate().for_each(|(i, xy)| {
let z = rules[xy];
res[i * 2] = xy[0];
res[i * 2 + 1] = z;
res[i * 2 + 2] = xy[1];
});
//dbg!(String::from_utf8_lossy(&res));
res
}
fn count(template: &[u8]) -> (usize, usize) {
let m = template
.iter()
.fold(HashMap::<u8, usize>::new(), |mut m, v| {
*m.entry(*v).or_insert(0) += 1;
m
});
let mut keys: Vec<_> = m.keys().collect();
keys.sort_unstable();
let mut s = "".to_string();
for k in keys {
s.push_str(&format!("{}: {} ", String::from_utf8_lossy(&[*k]), m[k]));
}
m.values()
.fold((usize::MAX, 0), |(min, max), v| (min.min(*v), max.max(*v)))
}
#[aoc(day14, part1)]
fn part1(input: &str) -> Result<usize> {
let (template, rules) = input.split_once("\n\n").unwrap();
let rules: HashMap<&[u8], u8> = rules
.lines()
.map(|l| {
let (pair, insert) = l.split_once(" -> ").unwrap();
(pair.as_bytes(), insert.as_bytes()[0])
})
.collect();
let mut template = template.as_bytes().to_vec();
for i in 1..11 {
template = expand(&template, &rules);
let s = String::from_utf8_lossy(&template);
count(&template);
}
let (min, max) = count(&template);
Ok(max - min)
}
// TODO
//#[aoc(day14, part2)]
fn part2(input: &str) -> Result<usize> {
let (template, rules) = input.split_once("\n\n").unwrap();
let rules: HashMap<&[u8], u8> = rules
.lines()
.map(|l| {
let (pair, insert) = l.split_once(" -> ").unwrap();
(pair.as_bytes(), insert.as_bytes()[0])
})
.collect();
let cnt = forty_steps(template.as_bytes().iter(), &rules);
dbg!(cnt);
//println!("After step {}: {}", i, String::from_utf8_lossy(&template));
//let (min, max) = count(template);
//Ok(max - min)
Ok(0)
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_part1() -> Result<()> {
let input = r#"
NNCB
CH -> B
HH -> N
CB -> H
NH -> C
HB -> C
HC -> B
HN -> C
NN -> C
BH -> H
NC -> B
NB -> B
BN -> B
BB -> N
BC -> B
CC -> N
CN -> C
"#
.trim();
assert_eq!(part1(input)?, 1588);
Ok(())
}
// TODO
//#[test]
fn test_part2() -> Result<()> {
let input = r#"
NNCB
CH -> B
HH -> N
CB -> H
NH -> C
HB -> C
HC -> B
HN -> C
NN -> C
BH -> H
NC -> B
NB -> B
BN -> B
BB -> N
BC -> B
CC -> N
CN -> C
"#
.trim();
assert_eq!(part2(input)?, 2188189693529);
Ok(())
}
}
// BB -> N BN NB BB NB NB BB
// BC -> B BB BC BN NB BB BC
// BH -> H BH HH BH HH HN NH
// BN -> B BB NB BN NB NB BB
// CB -> H CH HB \
// CC -> N CN NC
// CH -> B CB BH
// CN -> C CC CN
// HB -> C HC CB
// HC -> B HB BC
// HH -> N HN NH
// HN -> C HC CN
// NB -> B NB BB
// NC -> B NC BC
// NH -> C NC CH
// NN -> C NC CN
//
//
//

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use advent::prelude::*;
use aoc_runner_derive::aoc;
struct Image {
width: usize,
height: usize,
pixels: Vec<usize>,
}
impl Image {
fn new(width: usize, height: usize) -> Image {
let pixels = vec![0; width * height];
Image {
width,
height,
pixels,
}
}
}
impl Debug for Image {
fn fmt(&self, f: &mut Formatter<'_>) -> Result<(), Error> {
writeln!(f)?;
for y in 0..self.height {
for x in 0..self.width {
write!(f, "{}", self[(x, y)])?;
}
writeln!(f)?;
}
Ok(())
}
}
impl Index<(usize, usize)> for Image {
type Output = usize;
fn index(&self, (x, y): (usize, usize)) -> &Self::Output {
&self.pixels[x + y * self.width]
}
}
impl IndexMut<(usize, usize)> for Image {
fn index_mut(&mut self, (x, y): (usize, usize)) -> &mut Self::Output {
&mut self.pixels[x + y * self.width]
}
}
impl FromStr for Image {
type Err = Infallible;
fn from_str(s: &str) -> Result<Self, Self::Err> {
let rows: Vec<_> = s.lines().collect();
let width = rows[0].len();
let height = rows.len();
let pixels = rows
.iter()
.flat_map(|row| row.as_bytes().iter().map(|b| (b - b'0') as usize))
.collect();
Ok(Image {
width,
height,
pixels,
})
}
}
use std::{cmp::Ordering, collections::BinaryHeap};
#[derive(Copy, Clone, Eq, PartialEq)]
struct State {
cost: usize,
position: usize,
}
// The priority queue depends on `Ord`.
// Explicitly implement the trait so the queue becomes a min-heap
// instead of a max-heap.
impl Ord for State {
fn cmp(&self, other: &Self) -> Ordering {
// Notice that the we flip the ordering on costs.
// In case of a tie we compare positions - this step is necessary
// to make implementations of `PartialEq` and `Ord` consistent.
other
.cost
.cmp(&self.cost)
.then_with(|| self.position.cmp(&other.position))
}
}
// `PartialOrd` needs to be implemented as well.
impl PartialOrd for State {
fn partial_cmp(&self, other: &Self) -> Option<Ordering> {
Some(self.cmp(other))
}
}
// Each node is represented as a `usize`, for a shorter implementation.
struct Edge {
node: usize,
cost: usize,
}
impl Debug for Edge {
fn fmt(&self, f: &mut Formatter<'_>) -> Result<(), Error> {
write!(f, "Edge{{node: {}, cost: {}}}", self.node, self.cost)?;
Ok(())
}
}
// From https://doc.rust-lang.org/std/collections/binary_heap/index.html
// Dijkstra's shortest path algorithm.
// Start at `start` and use `dist` to track the current shortest distance
// to each node. This implementation isn't memory-efficient as it may leave duplicate
// nodes in the queue. It also uses `usize::MAX` as a sentinel value,
// for a simpler implementation.
fn shortest_path(adj_list: &[Vec<Edge>], start: usize, goal: usize) -> Option<usize> {
// dist[node] = current shortest distance from `start` to `node`
let mut dist: Vec<_> = (0..adj_list.len()).map(|_| usize::MAX).collect();
let mut heap = BinaryHeap::new();
// We're at `start`, with a zero cost
dist[start] = 0;
heap.push(State {
cost: 0,
position: start,
});
// Examine the frontier with lower cost nodes first (min-heap)
while let Some(State { cost, position }) = heap.pop() {
// Alternatively we could have continued to find all shortest paths
if position == goal {
return Some(cost);
}
// Important as we may have already found a better way
if cost > dist[position] {
continue;
}
// For each node we can reach, see if we can find a way with
// a lower cost going through this node
for edge in &adj_list[position] {
let next = State {
cost: cost + edge.cost,
position: edge.node,
};
// If so, add it to the frontier and continue
if next.cost < dist[next.position] {
heap.push(next);
// Relaxation, we have now found a better way
dist[next.position] = next.cost;
}
}
}
// Goal not reachable
None
}
fn make_graph(im: &Image) -> Vec<Vec<Edge>> {
let idx = |x, y| y * im.width + x;
let mut graph: Vec<_> = Vec::new();
for y in 0..im.height {
for x in 0..im.width {
let mut edges = Vec::new();
if x > 0 {
edges.push(Edge {
node: idx(x - 1, y),
cost: im[(x - 1, y)],
});
}
if x < im.width - 1 {
edges.push(Edge {
node: idx(x + 1, y),
cost: im[(x + 1, y)],
});
}
if y > 0 {
edges.push(Edge {
node: idx(x, y - 1),
cost: im[(x, y - 1)],
});
}
if y < im.height - 1 {
edges.push(Edge {
node: idx(x, y + 1),
cost: im[(x, y + 1)],
});
}
graph.push(edges);
}
}
graph
}
#[aoc(day15, part1)]
fn part1(input: &str) -> Result<usize> {
let im: Image = input.parse()?;
let graph = make_graph(&im);
Ok(shortest_path(&graph, 0, im.pixels.len() - 1).unwrap())
}
fn x5(im: &Image) -> Image {
let mut im5 = Image::new(im.width * 5, im.height * 5);
for iy in 0..5 {
for ix in 0..5 {
for y in 0..im.height {
for x in 0..im.width {
let v = im[(x, y)] + ix + iy;
let dst_x = ix * im.width + x;
let dst_y = iy * im.height + y;
im5[(dst_x, dst_y)] = if v > 9 { v % 9 } else { v };
}
}
}
}
im5
}
#[aoc(day15, part2)]
fn part2(input: &str) -> Result<usize> {
let im: Image = input.parse()?;
let im = x5(&im);
let graph = make_graph(&im);
Ok(shortest_path(&graph, 0, im.pixels.len() - 1).unwrap())
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_part1() -> Result<()> {
let input = r#"
1163751742
1381373672
2136511328
3694931569
7463417111
1319128137
1359912421
3125421639
1293138521
2311944581
"#
.trim();
assert_eq!(part1(input)?, 40);
Ok(())
}
#[test]
fn test_part2() -> Result<()> {
let input = r#"
1163751742
1381373672
2136511328
3694931569
7463417111
1319128137
1359912421
3125421639
1293138521
2311944581
"#
.trim();
assert_eq!(part2(input)?, 315);
Ok(())
}
}

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use advent::prelude::*;
use aoc_runner_derive::aoc;
fn hex(b: &u8) -> u8 {
if *b >= b'A' {
10 + b - b'A'
} else {
b - b'0'
}
}
fn sum_version(packet: &Packet) -> u64 {
fn sum_packets(packets: &[Packet]) -> u64 {
packets.iter().map(sum_version).sum()
}
packet.version as u64
+ match &packet.packet_type {
PacketType::Sum(packets) => sum_packets(packets),
PacketType::Product(packets) => sum_packets(packets),
PacketType::Minimum(packets) => sum_packets(packets),
PacketType::Maximum(packets) => sum_packets(packets),
PacketType::Literal(_) => 0,
PacketType::GreaterThan(packets) => sum_packets(packets),
PacketType::LessThan(packets) => sum_packets(packets),
PacketType::Equal(packets) => sum_packets(packets),
}
}
fn interpret(packet: &Packet) -> u64 {
match &packet.packet_type {
PacketType::Sum(packets) => packets.iter().map(interpret).sum(),
PacketType::Product(packets) => packets.iter().map(interpret).product(),
PacketType::Minimum(packets) => packets.iter().map(interpret).min().unwrap(),
PacketType::Maximum(packets) => packets.iter().map(interpret).max().unwrap(),
PacketType::Literal(v) => *v,
PacketType::GreaterThan(packets) => {
if interpret(&packets[0]) > interpret(&packets[1]) {
1
} else {
0
}
}
PacketType::LessThan(packets) => {
if interpret(&packets[0]) < interpret(&packets[1]) {
1
} else {
0
}
}
PacketType::Equal(packets) => {
if interpret(&packets[0]) == interpret(&packets[1]) {
1
} else {
0
}
}
}
}
#[derive(Debug)]
enum PacketType {
// 0
Sum(Vec<Packet>),
// 1
Product(Vec<Packet>),
// 2
Minimum(Vec<Packet>),
// 3
Maximum(Vec<Packet>),
// 4
Literal(u64),
// 5
GreaterThan(Vec<Packet>),
// 6
LessThan(Vec<Packet>),
// 7
Equal(Vec<Packet>),
}
#[derive(Debug)]
struct Packet {
version: u64,
bit_size: u64,
packet_type: PacketType,
}
struct Parser<'a> {
bytes: &'a [u8],
tmp: u64,
tmp_len: usize,
}
impl<'a> Parser<'a> {
fn new(input: &str) -> Parser {
Parser {
bytes: input.as_bytes(),
tmp: 0,
tmp_len: 0,
}
}
fn read(&mut self, n: usize) -> u64 {
assert!(n < 32, "can't read more than 32 bits at time");
//print!( " BEGIN n {0} tmp 0b{1:b} len {2} - ", n, self.tmp, self.tmp_len);
while self.tmp_len < n {
let mut buf = [0; 1];
self.bytes.read_exact(&mut buf).expect("EOF");
// Convert the byte from hexdecimal to binary and merge with any leftover bits.
self.tmp = (self.tmp << 4) | hex(&buf[0]) as u64;
self.tmp_len += 4;
}
let mask = (1 << n) - 1;
self.tmp_len -= n;
let v = (self.tmp >> self.tmp_len) & mask;
let mask = (1 << self.tmp_len) - 1;
self.tmp &= mask;
//println!( " END n {0} tmp 0b{2:b} len {3} v 0b{1:00$b} ", n, v, self.tmp, self.tmp_len);
v as u64
}
}
fn parse_packet(p: &mut Parser) -> Packet {
let mut bit_size: u64 = 0;
let version = p.read(3);
bit_size += 3;
let packet_type_id = p.read(3);
bit_size += 3;
let packet_type = if packet_type_id == 4 {
// Literal, read 5 bits at a time until MSB is 0
let mut v = 0;
loop {
let l = p.read(5);
v = (v << 4) | (l & 0b1111);
bit_size += 5;
if 0b10000 & l == 0 {
break;
}
}
PacketType::Literal(v)
} else {
// length type ID
let ltid = p.read(1);
bit_size += 1;
let mut packets = Vec::new();
if ltid == 0 {
// If the length type ID is 0, then the next 15 bits are a number that represents the total length in bits of the sub-packets contained by this packet.
let len = p.read(15);
bit_size += 15;
let mut sub_bits = 0;
while sub_bits < len {
let sub_p = parse_packet(p);
bit_size += sub_p.bit_size;
sub_bits += sub_p.bit_size;
packets.push(sub_p);
}
} else {
// If the length type ID is 1, then the next 11 bits are a number that represents the number of sub-packets immediately contained by this packet.
let num = p.read(11);
bit_size += 11;
for _ in 0..num {
let sub_p = parse_packet(p);
bit_size += sub_p.bit_size;
packets.push(sub_p);
}
}
match packet_type_id {
0 => PacketType::Sum(packets),
1 => PacketType::Product(packets),
2 => PacketType::Minimum(packets),
3 => PacketType::Maximum(packets),
5 => PacketType::GreaterThan(packets),
6 => PacketType::LessThan(packets),
7 => PacketType::Equal(packets),
_ => panic!("unknown packet type ID {}", packet_type_id),
}
};
Packet {
version,
bit_size,
packet_type,
}
}
#[aoc(day16, part1)]
fn part1(input: &str) -> Result<u64> {
let mut p = Parser::new(input);
let packet = parse_packet(&mut p);
Ok(sum_version(&packet))
}
#[aoc(day16, part2)]
fn part2(input: &str) -> Result<u64> {
let mut p = Parser::new(input);
let packet = parse_packet(&mut p);
Ok(interpret(&packet))
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_part1() -> Result<()> {
let input = vec![
("D2FE28", 6),
//("38006F45291200", 1 + 0 + 0),
("8A004A801A8002F478", 16),
("620080001611562C8802118E34", 12),
("C0015000016115A2E0802F182340", 23),
("A0016C880162017C3686B18A3D4780", 31),
];
for (inp, want) in input {
print!("\nTesting '{}'\n - ", inp);
inp.as_bytes().iter().for_each(|c| print!("{:04b}", hex(c)));
println!();
assert_eq!(part1(inp)?, want);
println!("Passed '{}'", inp);
}
Ok(())
}
#[test]
fn test_part2() -> Result<()> {
let input = vec![
("C200B40A82", 3),
("04005AC33890", 54),
("880086C3E88112", 7),
("CE00C43D881120", 9),
("D8005AC2A8F0", 1),
("F600BC2D8F", 0),
("9C005AC2F8F0", 0),
("9C0141080250320F1802104A08", 1),
];
for (inp, want) in input {
print!("\nTesting '{}'\n - ", inp);
inp.as_bytes().iter().for_each(|c| print!("{:04b}", hex(c)));
println!();
assert_eq!(part2(inp)?, want);
println!("Passed '{}'", inp);
}
Ok(())
}
}

107
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use advent::prelude::*;
use aoc_runner_derive::aoc;
#[derive(Debug)]
struct Target {
x_min: isize,
x_max: isize,
y_min: isize,
y_max: isize,
}
impl Target {
fn hit(&self, x: isize, y: isize) -> bool {
x >= self.x_min && x <= self.x_max && y >= self.y_min && y <= self.y_max
}
}
fn shoot(x: isize, y: isize, tgt: &Target) -> bool {
let mut x_inc = x;
let mut y_inc = y;
let mut x_cur = 0;
let mut y_cur = 0;
while x_cur <= tgt.x_max && y_cur >= tgt.y_min {
x_cur += x_inc;
y_cur += y_inc;
if x_inc > 0 {
x_inc -= 1;
}
y_inc -= 1;
if tgt.hit(x_cur, y_cur) {
return true;
}
}
false
}
impl FromStr for Target {
type Err = Infallible;
fn from_str(input: &str) -> std::result::Result<Target, Infallible> {
let parts: Vec<_> = input.split(' ').collect();
let x = &parts[2][2..].strip_suffix(',').unwrap();
let y = &parts[3][2..];
let (x_min, x_max) = x
.split_once("..")
.map(|(min, max)| (min.parse().unwrap(), max.parse().unwrap()))
.unwrap();
let (y_min, y_max) = y
.split_once("..")
.map(|(min, max)| (min.parse().unwrap(), max.parse().unwrap()))
.unwrap();
Ok(Target {
x_min,
x_max,
y_min,
y_max,
})
}
}
#[aoc(day17, part1)]
fn part1(input: &str) -> Result<isize> {
let tgt: Target = input.parse()?;
let n = tgt.y_min.abs() - 1;
Ok(n * (n + 1) / 2)
}
#[aoc(day17, part2)]
fn part2(input: &str) -> Result<usize> {
let tgt: Target = input.parse()?;
let mut cnt = 0;
let y_range = tgt.y_min.abs().max(tgt.y_min.abs());
for y in -y_range..=y_range {
for x in 1..=tgt.x_max {
if shoot(x, y, &tgt) {
cnt += 1;
}
}
}
Ok(cnt)
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_part1() -> Result<()> {
let input = r#"
target area: x=20..30, y=-10..-5
"#
.trim();
assert_eq!(part1(input)?, 45);
Ok(())
}
#[test]
fn test_part2() -> Result<()> {
let input = r#"
target area: x=20..30, y=-10..-5
"#
.trim();
assert_eq!(part2(input)?, 112);
Ok(())
}
}

732
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use advent::prelude::*;
use aoc_runner_derive::aoc;
use std::{
io::{BufReader, Cursor, Read},
ops::Add,
};
#[derive(Copy, Clone, Debug, PartialEq)]
enum ChildType {
None,
Value(usize),
Subtree(Idx),
}
#[derive(Copy, Clone, Default, PartialEq)]
struct Idx(usize);
impl Debug for Idx {
fn fmt(&self, f: &mut Formatter<'_>) -> std::fmt::Result {
write!(f, "{}", self.0)
}
}
impl Display for Idx {
fn fmt(&self, f: &mut Formatter<'_>) -> std::fmt::Result {
write!(f, "{}", self.0)
}
}
#[derive(Debug, PartialEq)]
struct Node {
deleted: bool,
idx: Idx,
parent: Option<Idx>,
left: ChildType,
right: ChildType,
}
// Tree needs to support merging two into one for adding snailfish numbers.
// Tree needs to support rightward and leftward depth first searches to find neighbors for applying
// exploded spill over.
// Need to support remove and/or replace for explode.
// Need to support insert and/or replace for split.
#[derive(Debug, Default)]
struct Tree {
root: Idx,
nodes: Vec<Node>,
}
struct TreeIter {
it: std::vec::IntoIter<Idx>,
}
impl TreeIter {
fn new(indices: &[Idx]) -> TreeIter {
let indices = indices.to_vec();
TreeIter {
it: indices.into_iter(),
}
}
}
impl Iterator for TreeIter {
type Item = Idx;
fn next(&mut self) -> Option<Self::Item> {
self.it.next()
}
}
impl PartialEq for Tree {
fn eq(&self, other: &Self) -> bool {
// Lazy but should work.
self.to_string() == other.to_string()
}
}
fn read_byte<R: Read>(reader: &mut R) -> std::io::Result<Option<u8>> {
reader.bytes().next().transpose()
}
impl Tree {
fn reduce(&mut self) {
let mut changed = true;
while changed {
changed = self.explode();
println!("after explode {}", self);
if changed {
continue;
}
changed = self.split();
println!("after split {}", self);
//println!("splice changed {}", changed);
}
}
fn magnitude(&self) -> usize {
fn inner(tree: &Tree, node: &Node) -> usize {
match (node.left, node.right) {
(ChildType::Value(l), ChildType::Value(r)) => 3 * l + 2 * r,
(ChildType::Subtree(idx), ChildType::Value(r)) => {
3 * inner(&tree, &tree[idx]) + 2 * r
}
(ChildType::Value(l), ChildType::Subtree(idx)) => {
3 * l + 2 * inner(&tree, &tree[idx])
}
(ChildType::Subtree(l_idx), ChildType::Subtree(r_idx)) => {
3 * inner(&tree, &tree[l_idx]) + 2 * inner(&tree, &tree[r_idx])
}
_ => panic!("unhandled combo for magnitude"),
}
}
inner(self, &self[self.root])
}
fn split(&mut self) -> bool {
if let Some(split_idx) = self
.left_to_right()
.skip_while(|idx| {
let n = &self[*idx];
if let ChildType::Value(v) = n.left {
if v > 9 {
return false;
}
}
if let ChildType::Value(v) = n.right {
if v > 9 {
return false;
}
}
true
})
.next()
{
if let ChildType::Value(v) = self[split_idx].left {
if v > 9 {
let l = v / 2;
let r = if v % 2 == 1 { 1 + v / 2 } else { v / 2 };
let mut new_idx = self.add_node(ChildType::Value(l), ChildType::Value(r));
self[new_idx].parent = Some(split_idx);
self[split_idx].left = ChildType::Subtree(new_idx);
}
}
if let ChildType::Value(v) = self[split_idx].right {
if v > 9 {
let l = v / 2;
let r = if v % 2 == 1 { 1 + v / 2 } else { v / 2 };
let mut new_idx = self.add_node(ChildType::Value(l), ChildType::Value(r));
self[new_idx].parent = Some(split_idx);
self[split_idx].right = ChildType::Subtree(new_idx);
}
}
return true;
}
false
}
fn explode(&mut self) -> bool {
let mut changed = false;
if let Some(node) = self
.nodes
.iter()
.filter(|n| !n.deleted)
.find(|n| self.depth(n) >= 4)
{
changed = true;
let ex_idx = node.idx;
// Find spillover to the right
if let Some(spillover) = self
.left_to_right()
.skip_while(|idx| *idx != ex_idx)
.skip(1)
.find(|idx| {
let n = &self[*idx];
match (n.left, n.right) {
(ChildType::Subtree(_), ChildType::Subtree(_)) => false,
_ => true,
}
})
{
let src = self[ex_idx].right;
let tgt = &mut self[spillover];
if let (ChildType::Value(l), ChildType::Value(r)) = (src, tgt.left) {
tgt.left = ChildType::Value(l + r);
} else if let (ChildType::Value(l), ChildType::Value(r)) = (src, tgt.right) {
tgt.right = ChildType::Value(l + r);
} else {
unreachable!()
};
}
// Find spillover to the left
if let Some(spillover) = self
.right_to_left()
.skip_while(|idx| *idx != ex_idx)
.skip(1)
.find(|idx| {
let n = &self[*idx];
match (n.left, n.right) {
(ChildType::Subtree(_), ChildType::Subtree(_)) => false,
_ => true,
}
})
{
let src = self[ex_idx].left;
let tgt = &mut self[spillover];
if let (ChildType::Value(l), ChildType::Value(r)) = (src, tgt.right) {
tgt.right = ChildType::Value(l + r);
} else if let (ChildType::Value(l), ChildType::Value(r)) = (src, tgt.left) {
tgt.left = ChildType::Value(l + r);
} else {
unreachable!()
};
}
// Replace exploded node
self[ex_idx].deleted = true;
let p_idx = self[ex_idx].parent.expect("exploded root");
let p = &mut self[p_idx];
if let ChildType::Subtree(idx) = p.left {
if idx == ex_idx {
p.left = ChildType::Value(0);
}
}
if let ChildType::Subtree(idx) = p.right {
if idx == ex_idx {
p.right = ChildType::Value(0);
}
}
}
changed
}
fn depth(&self, node: &Node) -> usize {
if let Some(parent_idx) = node.parent {
1 + self.depth(&self[parent_idx])
} else {
0
}
}
fn find_root(&self, node: &Node) -> Idx {
match node.parent {
Some(parent_idx) => self.find_root(&self[parent_idx]),
None => node.idx,
}
}
fn add_node(&mut self, left: ChildType, right: ChildType) -> Idx {
let idx = Idx(self.nodes.len());
self.nodes.push(Node {
deleted: false,
idx,
parent: None,
left,
right,
});
idx
}
fn from_str_node(&mut self, r: &mut BufReader<Cursor<&[u8]>>) -> ChildType {
let mut parsing_left = true;
// Can this be rewritten to eliminate the need for `None`?
let mut left = ChildType::None;
let mut right = ChildType::None;
while let Ok(Some(b)) = read_byte(r) {
match b {
b'[' => {
let node = self.from_str_node(r);
if parsing_left {
left = node;
} else {
right = node;
}
}
b']' => {
let mut left_idx = None;
let mut right_idx = None;
if let ChildType::Subtree(idx) = left {
left_idx = Some(idx);
}
if let ChildType::Subtree(idx) = right {
right_idx = Some(idx);
}
let child_idx = self.add_node(left, right);
if let Some(idx) = left_idx {
self[idx].parent = Some(child_idx);
}
if let Some(idx) = right_idx {
self[idx].parent = Some(child_idx);
}
return ChildType::Subtree(child_idx);
}
b',' => parsing_left = false,
b'0'..=b'9' => {
let mut v = b - b'0';
if let Ok(Some(peek)) = read_byte(r) {
match peek {
b'0'..=b'9' => v = (peek - b'0') + 10 * v,
// Wasn't a number >9, push the byte back into the buffer.
_ => r.seek_relative(-1).expect("failed to seek"),
}
}
if parsing_left {
left = ChildType::Value(v.into());
parsing_left = false;
} else {
right = ChildType::Value(v.into());
}
continue;
}
_ => panic!("unknown byte '{}'", b),
}
}
unreachable!()
}
fn fmt_node(&self, f: &mut Formatter<'_>, node: &Node) -> std::fmt::Result {
write!(f, "[")?;
match node.left {
ChildType::None => panic!("left node was None"),
ChildType::Value(v) => write!(f, "{}", v)?,
ChildType::Subtree(idx) => self.fmt_node(f, &self[idx])?,
};
write!(f, ",")?;
match node.right {
ChildType::None => panic!("right node was None"),
ChildType::Value(v) => write!(f, "{}", v)?,
ChildType::Subtree(idx) => self.fmt_node(f, &self[idx])?,
};
write!(f, "]")?;
Ok(())
}
fn left_to_right(&mut self) -> TreeIter {
fn dfs(tree: &Tree, n: &Node, mut indices: &mut Vec<Idx>) {
if let ChildType::Subtree(idx) = n.left {
dfs(tree, &tree[idx], indices);
}
indices.push(n.idx);
if let ChildType::Subtree(idx) = n.right {
dfs(tree, &tree[idx], indices);
}
}
let mut indices = Vec::with_capacity(self.nodes.len());
dfs(self, &self[self.root], &mut indices);
TreeIter::new(&indices)
}
fn right_to_left(&mut self) -> TreeIter {
fn dfs(tree: &Tree, n: &Node, mut indices: &mut Vec<Idx>) {
if let ChildType::Subtree(idx) = n.right {
dfs(tree, &tree[idx], indices);
}
indices.push(n.idx);
if let ChildType::Subtree(idx) = n.left {
dfs(tree, &tree[idx], indices);
}
}
let mut indices = Vec::with_capacity(self.nodes.len());
dfs(self, &self[self.root], &mut indices);
TreeIter::new(&indices)
}
}
impl Add for Tree {
type Output = Tree;
fn add(self, other: Self) -> Self {
// This is lazy but works for simple any obvious reasons (if FromStr and Display work
// correctly).
format!("[{},{}]", self, other)
.parse()
.expect("failed to parse merge tree")
}
}
impl FromStr for Tree {
type Err = Infallible;
fn from_str(input: &str) -> std::result::Result<Tree, Infallible> {
let mut tree = Tree::default();
let mut bytes = input.as_bytes();
assert_eq!(
read_byte(&mut bytes).expect("couldn't read first byte"),
Some(b'[')
);
let mut b = BufReader::new(Cursor::new(bytes));
tree.from_str_node(&mut b);
tree.root = tree.find_root(&tree[Idx(0)]);
Ok(tree)
}
}
impl Index<Idx> for Tree {
type Output = Node;
fn index(&self, idx: Idx) -> &Self::Output {
&self.nodes[idx.0]
}
}
impl IndexMut<Idx> for Tree {
fn index_mut(&mut self, idx: Idx) -> &mut Self::Output {
&mut self.nodes[idx.0]
}
}
impl Display for Tree {
fn fmt(&self, f: &mut Formatter<'_>) -> std::fmt::Result {
if self.nodes.is_empty() {
return write!(f, "[]");
}
let node = &self[self.root];
self.fmt_node(f, &node)?;
Ok(())
}
}
fn sum(input: &str) -> Tree {
input
.lines()
.map(|l| l.parse().expect("failed to parse"))
.reduce(|acc, t| acc + t)
.expect("failed to reduce")
}
#[aoc(day18, part1)]
fn part1(input: &str) -> Result<usize> {
let nums: Vec<Tree> = input
.lines()
.map(|l| {
dbg!(l);
l.parse().expect("failed to parse")
})
.collect();
let mut it = nums.into_iter();
let mut last = it.next().unwrap();
while let Some(next) = it.next() {
println!(" {}", last);
println!("+ {}", next);
last = last + next;
println!("= {}", last);
last.reduce();
println!("= {}\n", last);
}
Ok(last.magnitude())
}
/*
#[aoc(day18, part2)]
fn part2(input: &str) -> Result<usize> {
todo!("part2");
Ok(0)
}
*/
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_display() -> Result<()> {
for (i, s) in ["[1,2]", "[[1,2],3]", "[1,[2,3]]", "[[1,2],[3,4]]"]
.into_iter()
.enumerate()
{
let t = s.parse::<Tree>()?;
assert_eq!(&t.to_string(), s, "input {}: '{}'", i, s);
//assert_eq!(&t.to_string(), s, "input {}: '{}'\ntree: {:#?}", i, s, t);
}
Ok(())
}
#[test]
fn test_sum() -> Result<()> {
let l: Tree = "[1,2]".parse().unwrap();
let r: Tree = "[[3,4],5]".parse().unwrap();
assert_eq!(l + r, "[[1,2],[[3,4],5]]".parse().unwrap());
let input = r#"
[[[[4,3],4],4],[7,[[8,4],9]]]
[1,1]
"#
.trim();
let mut s = sum(input);
s.reduce();
assert_eq!(s.to_string(), "[[[[0,7],4],[[7,8],[6,0]]],[8,1]]");
Ok(())
}
#[test]
fn test_reduce() -> Result<()> {
for (input, want) in [
("[0,[0,[0,[0,[0,0]]]]]", "[0,[0,[0,[0,0]]]]"),
("[[[[[[[[0,0],0],0],0],0],0],0],0]", "[[[[0,0],0],0],0]"),
("[[[[[[[0,0],0],0],0],0],0],0]", "[[[[0,0],0],0],0]"),
] {
println!("== test_reduce: {}", input);
let mut tree: Tree = input.parse()?;
tree.reduce();
let want = want.parse()?;
assert_eq!(tree, want, "\nInput {} Got {} Want {}", input, tree, want);
}
Ok(())
}
#[test]
fn test_explode() -> Result<()> {
for (input, want) in [
("[[[[0,0],0],0],0]", "[[[[0,0],0],0],0]"),
("[[[0,0],0],0]", "[[[0,0],0],0]"),
("[[0,0],0]", "[[0,0],0]"),
("[0,[0,[0,[0,0]]]]", "[0,[0,[0,[0,0]]]]"),
("[0,[0,[0,0]]]", "[0,[0,[0,0]]]"),
("[0,[0,0]]", "[0,[0,0]]"),
("[[[[[9,8],1],2],3],4]", "[[[[0,9],2],3],4]"),
("[7,[6,[5,[4,[3,2]]]]]", "[7,[6,[5,[7,0]]]]"),
("[[6,[5,[4,[3,2]]]],1]", "[[6,[5,[7,0]]],3]"),
(
"[[3,[2,[1,[7,3]]]],[6,[5,[4,[3,2]]]]]",
"[[3,[2,[8,0]]],[9,[5,[4,[3,2]]]]]",
),
(
"[[3,[2,[8,0]]],[9,[5,[4,[3,2]]]]]",
"[[3,[2,[8,0]]],[9,[5,[7,0]]]]",
),
] {
println!("== test_explode: {}", input);
let mut tree: Tree = input.parse()?;
tree.explode();
let want = want.parse()?;
assert_eq!(tree, want, "\nInput {} Got {} Want {}", input, tree, want);
}
Ok(())
}
#[test]
fn test_split() -> Result<()> {
for (input, want) in [
("[10,0]", "[[5,5],0]"), //
("[0,11]", "[0,[5,6]]"),
("[[0,11],0]", "[[0,[5,6]],0]"),
("[11,0]", "[[5,6],0]"),
("[0,[11,0]]", "[0,[[5,6],0]]"),
("[12,0]", "[[6,6],0]"),
("[0,12]", "[0,[6,6]]"),
] {
println!("== test_split: {}", input);
let mut tree: Tree = input.parse()?;
dbg!(&tree);
tree.split();
let want = want.parse()?;
assert_eq!(tree, want, "\nInput {} Got {} Want {}", input, tree, want);
}
Ok(())
}
#[test]
fn test_magnitude() -> Result<()> {
for (input, want) in [
("[9,1]", 29),
("[1,9]", 21),
("[[9,1],[1,9]]", 129),
("[[1,2],[[3,4],5]]", 143),
("[[[[0,7],4],[[7,8],[6,0]]],[8,1]]", 1384),
("[[[[1,1],[2,2]],[3,3]],[4,4]]", 445),
("[[[[3,0],[5,3]],[4,4]],[5,5]]", 791),
("[[[[5,0],[7,4]],[5,5]],[6,6]]", 1137),
(
"[[[[8,7],[7,7]],[[8,6],[7,7]]],[[[0,7],[6,6]],[8,7]]]",
3488,
),
] {
let tree: Tree = input.parse()?;
assert_eq!(tree.magnitude(), want);
}
Ok(())
}
#[test]
fn test_add_and_reduce() -> Result<()> {
for (input, want) in [
(
r#"
[1,1]
[2,2]
[3,3]
[4,4]
"#,
"[[[[1,1],[2,2]],[3,3]],[4,4]]",
),
(
r#"
[1,1]
[2,2]
[3,3]
[4,4]
[5,5]
"#
.trim(),
"[[[[3,0],[5,3]],[4,4]],[5,5]]",
),
(
r#"
[1,1]
[2,2]
[3,3]
[4,4]
[5,5]
[6,6]
"#
.trim(),
"[[[[5,0],[7,4]],[5,5]],[6,6]]",
),
(
r#"
[[[[4,3],4],4],[7,[[8,4],9]]]
[1,1]
"#
.trim(),
"[[[[0,7],4],[[7,8],[6,0]]],[8,1]]",
),
] {
println!("== 1. test_add_and_reduce: {}", input);
let mut num = sum(input.trim());
println!("before reduce: {}", num);
num.reduce();
println!("after reduce: {}", num);
assert_eq!(num.to_string(), want);
}
for (l, r, eq) in [
(
"[[[[4,3],4],4],[7,[[8,4],9]]]",
"[1,1]",
"[[[[0,7],4],[[7,8],[6,0]]],[8,1]]",
),
(
"[[[0,[4,5]],[0,0]],[[[4,5],[2,6]],[9,5]]]",
"[7,[[[3,7],[4,3]],[[6,3],[8,8]]]]",
"[[[[4,0],[5,4]],[[7,7],[6,0]]],[[8,[7,7]],[[7,9],[5,0]]]]",
),
(
"[[[[4,0],[5,4]],[[7,7],[6,0]]],[[8,[7,7]],[[7,9],[5,0]]]]",
"[[2,[[0,8],[3,4]]],[[[6,7],1],[7,[1,6]]]]",
"[[[[6,7],[6,7]],[[7,7],[0,7]]],[[[8,7],[7,7]],[[8,8],[8,0]]]]",
),
(
"[[[[6,7],[6,7]],[[7,7],[0,7]]],[[[8,7],[7,7]],[[8,8],[8,0]]]]",
"[[[[2,4],7],[6,[0,5]]],[[[6,8],[2,8]],[[2,1],[4,5]]]]",
"[[[[7,0],[7,7]],[[7,7],[7,8]]],[[[7,7],[8,8]],[[7,7],[8,7]]]]",
),
(
"[[[[7,0],[7,7]],[[7,7],[7,8]]],[[[7,7],[8,8]],[[7,7],[8,7]]]]",
"[7,[5,[[3,8],[1,4]]]]",
"[[[[7,7],[7,8]],[[9,5],[8,7]]],[[[6,8],[0,8]],[[9,9],[9,0]]]]",
),
(
"[[[[7,7],[7,8]],[[9,5],[8,7]]],[[[6,8],[0,8]],[[9,9],[9,0]]]]",
"[[2,[2,2]],[8,[8,1]]]",
"[[[[6,6],[6,6]],[[6,0],[6,7]]],[[[7,7],[8,9]],[8,[8,1]]]]",
),
(
"[[[[6,6],[6,6]],[[6,0],[6,7]]],[[[7,7],[8,9]],[8,[8,1]]]]",
"[2,9]",
"[[[[6,6],[7,7]],[[0,7],[7,7]]],[[[5,5],[5,6]],9]]",
),
(
"[[[[6,6],[7,7]],[[0,7],[7,7]]],[[[5,5],[5,6]],9]]",
"[1,[[[9,3],9],[[9,0],[0,7]]]]",
"[[[[7,8],[6,7]],[[6,8],[0,8]]],[[[7,7],[5,0]],[[5,5],[5,6]]]]",
),
(
"[[[[7,8],[6,7]],[[6,8],[0,8]]],[[[7,7],[5,0]],[[5,5],[5,6]]]]",
"[[[5,[7,4]],7],1]",
"[[[[7,7],[7,7]],[[8,7],[8,7]]],[[[7,0],[7,7]],9]]",
),
(
"[[[[7,7],[7,7]],[[8,7],[8,7]]],[[[7,0],[7,7]],9]]",
"[[[[4,2],2],6],[8,7]]",
"[[[[8,7],[7,7]],[[8,6],[7,7]]],[[[0,7],[6,6]],[8,7]]]",
),
] {
let l: Tree = l.parse()?;
let r: Tree = r.parse()?;
let mut num = l + r;
println!("== 2. test_add_and_reduce: {}", num);
println!("before reduce: {}", num);
num.reduce();
println!("after reduce: {}", num);
assert_eq!(num.to_string(), eq);
}
Ok(())
}
#[test]
fn test_part1() -> Result<()> {
let input = r#"
[[[0,[4,5]],[0,0]],[[[4,5],[2,6]],[9,5]]]
[7,[[[3,7],[4,3]],[[6,3],[8,8]]]]
[[2,[[0,8],[3,4]]],[[[6,7],1],[7,[1,6]]]]
[[[[2,4],7],[6,[0,5]]],[[[6,8],[2,8]],[[2,1],[4,5]]]]
[7,[5,[[3,8],[1,4]]]]
[[2,[2,2]],[8,[8,1]]]
[2,9]
[1,[[[9,3],9],[[9,0],[0,7]]]]
[[[5,[7,4]],7],1]
[[[[4,2],2],6],[8,7]]
"#
.trim();
assert_eq!(part1(input)?, 3488);
let input = r#"
[[[0,[5,8]],[[1,7],[9,6]]],[[4,[1,2]],[[1,4],2]]]
[[[5,[2,8]],4],[5,[[9,9],0]]]
[6,[[[6,2],[5,6]],[[7,6],[4,7]]]]
[[[6,[0,7]],[0,9]],[4,[9,[9,0]]]]
[[[7,[6,4]],[3,[1,3]]],[[[5,5],1],9]]
[[6,[[7,3],[3,2]]],[[[3,8],[5,7]],4]]
[[[[5,4],[7,7]],8],[[8,3],8]]
[[9,3],[[9,9],[6,[4,9]]]]
[[2,[[7,7],7]],[[5,8],[[9,3],[0,2]]]]
[[[[5,2],5],[8,[3,7]]],[[5,[7,5]],[4,4]]]
"#
.trim();
assert_eq!(part1(input)?, 4140);
Ok(())
}
/*
#[test]
fn test_part2()->Result<()> {
let input = r#"
"#
.trim();
assert_eq!(part2(input)?, usize::MAX);
Ok(())
}
*/
}

469
2021/src/day19.rs Normal file
View File

@ -0,0 +1,469 @@
use advent::prelude::*;
use aoc_runner_derive::aoc;
use std::ops::{Add, Sub};
#[derive(Clone, Copy, Default, Eq, Hash, PartialEq, PartialOrd, Ord)]
struct Vec3([i64; 3]);
impl Add for Vec3 {
type Output = Self;
fn add(self, other: Self) -> Self::Output {
Vec3([
self.0[0] + other.0[0],
self.0[1] + other.0[1],
self.0[2] + other.0[2],
])
}
}
impl Sub for Vec3 {
type Output = Self;
fn sub(self, other: Self) -> Self::Output {
Vec3([
self.0[0] - other.0[0],
self.0[1] - other.0[1],
self.0[2] - other.0[2],
])
}
}
impl Debug for Vec3 {
fn fmt(&self, f: &mut Formatter<'_>) -> Result<(), Error> {
write!(f, "<{:4},{:4},{:4}>", self.0[0], self.0[1], self.0[2])
}
}
impl FromStr for Vec3 {
type Err = Infallible;
fn from_str(input: &str) -> std::result::Result<Vec3, Infallible> {
let v: Vec<_> = input.split(',').map(|s| s.parse().unwrap()).collect();
Ok(Vec3(v.try_into().unwrap()))
}
}
#[derive(Debug)]
struct Scanner {
id: usize,
offset: Option<Vec3>,
points: Vec<Vec3>,
}
impl Scanner {
fn translate(&mut self, distance: Vec3, orientation: [usize; 3], signs: [i64; 3]) {
for p in &mut self.points {
*p = Vec3([
signs[0] * p.0[orientation[0]] + distance.0[0],
signs[1] * p.0[orientation[1]] + distance.0[1],
signs[2] * p.0[orientation[2]] + distance.0[2],
]);
}
}
}
impl FromStr for Scanner {
type Err = Infallible;
fn from_str(input: &str) -> std::result::Result<Scanner, Infallible> {
let mut it = input.lines();
let id = it
.next()
.unwrap()
.split(' ')
.nth(2)
.unwrap()
.parse()
.unwrap();
Ok(Scanner {
id,
offset: None,
points: it.map(|l| l.parse().unwrap()).collect(),
})
}
}
#[derive(Debug, PartialEq)]
struct Match {
abs_points: Vec<Vec3>,
distance: Vec3,
orientation: [usize; 3],
signs: [i64; 3],
}
// Returns overlap, and in s1 space
fn find_overlap(s1: &Scanner, s2: &Scanner) -> Option<Match> {
let mut counts: HashMap<(Vec3, [usize; 3], [i64; 3]), Vec<Vec3>> = HashMap::new();
let orientations = [
[0, 1, 2],
[0, 2, 1],
[1, 0, 2],
[1, 2, 0],
[2, 0, 1],
[2, 1, 0],
];
let signs = [
[-1, -1, -1],
[1, -1, -1],
[-1, 1, -1],
[1, 1, -1],
[-1, -1, 1],
[1, -1, 1],
[-1, 1, 1],
];
for v1 in &s1.points {
for v2 in &s2.points {
for or in orientations {
for sign in signs {
let [x, y, z] = sign;
let v = Vec3([x * v2.0[or[0]], y * v2.0[or[1]], z * v2.0[or[2]]]);
let diff = *v1 - v;
counts.entry((diff, or, sign)).or_default().push(*v1);
}
}
}
}
if let Some(((distance, orientation, signs), list)) =
counts.into_iter().find(|(_k, v)| v.len() >= 12)
{
// s1's points should already be in absolute coords. s2 will be translated in
// part1().
return Some(Match {
abs_points: list,
distance,
orientation,
signs,
});
}
None
}
fn parse(input: &str) -> Result<Vec<Scanner>> {
input.split("\n\n").map(|s| Ok(s.parse()?)).collect()
}
#[aoc(day19, part1)]
fn part1(input: &str) -> Result<usize> {
let mut scanner = parse(input)?;
// Assign the first scanner to the origin (0,0,0).
// Put that in a list of recently registered scanners.
// In a loop
// - For each recently registered scanner, attempt to find overlap with each unregistered
// scanner.
// - Matches should be translated according to the offsets found during the match. This should
// put them in absolute space.
// - Each match should be added to the recently registered list for the next iteration.
// - Do this until all scanners are registered.
scanner[0].offset = Some(Vec3::default());
let (mut registered, mut unregistered): (VecDeque<_>, VecDeque<_>) =
scanner.into_iter().partition(|s| s.offset.is_some());
let mut becons = HashSet::new();
let mut done = Vec::new();
while let Some(reg) = registered.pop_front() {
let mut unregs = VecDeque::new();
for mut unreg in unregistered {
if let Some(mat) = find_overlap(&reg, &unreg) {
unreg.offset = Some(mat.distance);
unreg.translate(mat.distance, mat.orientation, mat.signs);
println!(
"scanner {} @ {:?} found {} hits",
&unreg.id,
&unreg.offset.unwrap(),
mat.abs_points.len()
);
registered.push_back(unreg);
for pt in mat.abs_points {
becons.insert(pt);
}
} else {
unregs.push_back(unreg);
}
}
done.push(reg);
unregistered = unregs;
}
println!("before pass 2: {}", becons.len());
for i in 0..registered.len() {
for j in i..registered.len() {
let s1 = &registered[i];
let s2 = &registered[j];
if let Some(mat) = find_overlap(s1, s2) {
for pt in mat.abs_points {
becons.insert(pt);
}
}
}
}
println!("after pass 2: {}", becons.len());
//assert_eq!(done.len(), 12);
let mut becons: Vec<_> = becons.iter().collect();
becons.sort();
dbg!(&becons);
Ok(becons.len())
}
/*
#[aoc(day19, part2)]
fn part2(input: &str) -> Result<usize> {
todo!("part2");
Ok(0)
}
*/
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_overlap() -> Result<()> {
use pretty_assertions::assert_eq;
let input = r#"
--- scanner 0 ---
404,-588,-901
528,-643,409
-838,591,734
390,-675,-793
-537,-823,-458
-485,-357,347
-345,-311,381
-661,-816,-575
-876,649,763
-618,-824,-621
553,345,-567
474,580,667
-447,-329,318
-584,868,-557
544,-627,-890
564,392,-477
455,729,728
-892,524,684
-689,845,-530
423,-701,434
7,-33,-71
630,319,-379
443,580,662
-789,900,-551
459,-707,401
--- scanner 1 ---
686,422,578
605,423,415
515,917,-361
-336,658,858
95,138,22
-476,619,847
-340,-569,-846
567,-361,727
-460,603,-452
669,-402,600
729,430,532
-500,-761,534
-322,571,750
-466,-666,-811
-429,-592,574
-355,545,-477
703,-491,-529
-328,-685,520
413,935,-424
-391,539,-444
586,-435,557
-364,-763,-893
807,-499,-711
755,-354,-619
553,889,-390
"#
.trim();
let mut abs_points: Vec<Vec3> = r#"
-618,-824,-621
-537,-823,-458
-447,-329,318
404,-588,-901
544,-627,-890
528,-643,409
-661,-816,-575
390,-675,-793
423,-701,434
-345,-311,381
459,-707,401
-485,-357,347
"#
.trim()
.lines()
.map(|l| l.parse().unwrap())
.collect();
abs_points.sort();
let orientation = [0, 1, 2];
let signs = [-1, 1, -1];
let distance = Vec3([68, -1246, -43]);
let want = Match {
distance,
abs_points,
orientation,
signs,
};
let scanners = parse(input)?;
let mut got = find_overlap(&scanners[0], &scanners[1]).unwrap();
got.abs_points.sort();
assert_eq!(want, got);
Ok(())
}
#[test]
fn test_part1() -> Result<()> {
let input = r#"
--- scanner 0 ---
404,-588,-901
528,-643,409
-838,591,734
390,-675,-793
-537,-823,-458
-485,-357,347
-345,-311,381
-661,-816,-575
-876,649,763
-618,-824,-621
553,345,-567
474,580,667
-447,-329,318
-584,868,-557
544,-627,-890
564,392,-477
455,729,728
-892,524,684
-689,845,-530
423,-701,434
7,-33,-71
630,319,-379
443,580,662
-789,900,-551
459,-707,401
--- scanner 1 ---
686,422,578
605,423,415
515,917,-361
-336,658,858
95,138,22
-476,619,847
-340,-569,-846
567,-361,727
-460,603,-452
669,-402,600
729,430,532
-500,-761,534
-322,571,750
-466,-666,-811
-429,-592,574
-355,545,-477
703,-491,-529
-328,-685,520
413,935,-424
-391,539,-444
586,-435,557
-364,-763,-893
807,-499,-711
755,-354,-619
553,889,-390
--- scanner 2 ---
649,640,665
682,-795,504
-784,533,-524
-644,584,-595
-588,-843,648
-30,6,44
-674,560,763
500,723,-460
609,671,-379
-555,-800,653
-675,-892,-343
697,-426,-610
578,704,681
493,664,-388
-671,-858,530
-667,343,800
571,-461,-707
-138,-166,112
-889,563,-600
646,-828,498
640,759,510
-630,509,768
-681,-892,-333
673,-379,-804
-742,-814,-386
577,-820,562
--- scanner 3 ---
-589,542,597
605,-692,669
-500,565,-823
-660,373,557
-458,-679,-417
-488,449,543
-626,468,-788
338,-750,-386
528,-832,-391
562,-778,733
-938,-730,414
543,643,-506
-524,371,-870
407,773,750
-104,29,83
378,-903,-323
-778,-728,485
426,699,580
-438,-605,-362
-469,-447,-387
509,732,623
647,635,-688
-868,-804,481
614,-800,639
595,780,-596
--- scanner 4 ---
727,592,562
-293,-554,779
441,611,-461
-714,465,-776
-743,427,-804
-660,-479,-426
832,-632,460
927,-485,-438
408,393,-506
466,436,-512
110,16,151
-258,-428,682
-393,719,612
-211,-452,876
808,-476,-593
-575,615,604
-485,667,467
-680,325,-822
-627,-443,-432
872,-547,-609
833,512,582
807,604,487
839,-516,451
891,-625,532
-652,-548,-490
30,-46,-14
"#
.trim();
assert_eq!(part1(input)?, 79);
Ok(())
}
/*
#[test]
fn test_part2()->Result<()> {
let input = r#"
"#
.trim();
assert_eq!(part2(input)?, usize::MAX);
Ok(())
}
*/
}

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//! --- Day 2: Dive! ---
//! Now, you need to figure out how to pilot this thing.
//!
//! It seems like the submarine can take a series of commands like forward 1, down 2, or up 3:
//!
//! forward X increases the horizontal position by X units.
//! down X increases the depth by X units.
//! up X decreases the depth by X units.
//! Note that since you're on a submarine, down and up affect your depth, and so they have the opposite result of what you might expect.
//!
//! The submarine seems to already have a planned course (your puzzle input). You should probably figure out where it's going. For example:
//!
//! forward 5
//! down 5
//! forward 8
//! up 3
//! down 8
//! forward 2
//! Your horizontal position and depth both start at 0. The steps above would then modify them as follows:
//!
//! forward 5 adds 5 to your horizontal position, a total of 5.
//! down 5 adds 5 to your depth, resulting in a value of 5.
//! forward 8 adds 8 to your horizontal position, a total of 13.
//! up 3 decreases your depth by 3, resulting in a value of 2.
//! down 8 adds 8 to your depth, resulting in a value of 10.
//! forward 2 adds 2 to your horizontal position, a total of 15.
//! After following these instructions, you would have a horizontal position of 15 and a depth of 10. (Multiplying these together produces 150.)
//!
//! Calculate the horizontal position and depth you would have after following the planned course. What do you get if you multiply your final horizontal position by your final depth?
//!
//! --- Part Two ---
//! Based on your calculations, the planned course doesn't seem to make any sense. You find the submarine manual and discover that the process is actually slightly more complicated.
//!
//! In addition to horizontal position and depth, you'll also need to track a third value, aim, which also starts at 0. The commands also mean something entirely different than you first thought:
//!
//! down X increases your aim by X units.
//! up X decreases your aim by X units.
//! forward X does two things:
//! It increases your horizontal position by X units.
//! It increases your depth by your aim multiplied by X.
//! Again note that since you're on a submarine, down and up do the opposite of what you might expect: "down" means aiming in the positive direction.
//!
//! Now, the above example does something different:
//!
//! forward 5 adds 5 to your horizontal position, a total of 5. Because your aim is 0, your depth does not change.
//! down 5 adds 5 to your aim, resulting in a value of 5.
//! forward 8 adds 8 to your horizontal position, a total of 13. Because your aim is 5, your depth increases by 8*5=40.
//! up 3 decreases your aim by 3, resulting in a value of 2.
//! down 8 adds 8 to your aim, resulting in a value of 10.
//! forward 2 adds 2 to your horizontal position, a total of 15. Because your aim is 10, your depth increases by 2*10=20 to a total of 60.
//! After following these new instructions, you would have a horizontal position of 15 and a depth of 60. (Multiplying these produces 900.)
//!
//! Using this new interpretation of the commands, calculate the horizontal position and depth you would have after following the planned course. What do you get if you multiply your final horizontal position by your final depth?
use anyhow::Result;
use aoc_runner_derive::aoc;
#[aoc(day2, part1)]
fn part1(input: &str) -> Result<i32> {
let mut horizontal: i32 = 0;
let mut depth: i32 = 0;
for l in input.split('\n') {
let p: Vec<_> = l.split(' ').collect();
match p[0] {
"forward" => horizontal += p[1].parse::<i32>()?,
"up" => depth -= p[1].parse::<i32>()?,
"down" => depth += p[1].parse::<i32>()?,
_ => panic!("unknown command {}", p[0]),
}
}
Ok(horizontal * depth)
}
#[aoc(day2, part2)]
fn part2(input: &str) -> Result<i32> {
let mut horizontal: i32 = 0;
let mut depth: i32 = 0;
let mut aim: i32 = 0;
for l in input.split('\n') {
let p: Vec<_> = l.split(' ').collect();
match p[0] {
"forward" => {
let v = p[1].parse::<i32>()?;
horizontal += v;
depth += v * aim;
}
"up" => aim -= p[1].parse::<i32>()?,
"down" => aim += p[1].parse::<i32>()?,
_ => panic!("unknown command {}", p[0]),
}
}
Ok(horizontal * depth)
}
#[test]
fn test_part1() -> Result<()> {
let input = r#"
forward 5
down 5
forward 8
up 3
down 8
forward 2
"#
.trim();
assert_eq!(part1(input)?, 150);
Ok(())
}
#[test]
fn test_part2() -> Result<()> {
let input = r#"
forward 5
down 5
forward 8
up 3
down 8
forward 2
"#
.trim();
assert_eq!(part2(input)?, 900);
Ok(())
}

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use advent::prelude::*;
use aoc_runner_derive::aoc;
use std::ops::RangeInclusive;
struct Image(HashSet<(isize, isize)>);
impl Image {
fn new(input: &str) -> Image {
let rows: Vec<_> = input.lines().collect();
let width = rows[0].len();
Image(
rows.iter()
.flat_map(|row| row.as_bytes().iter())
.enumerate()
.filter(|(_i, b)| *b == &b'#')
.map(|(i, _b)| ((i % width) as isize, (i / width) as isize))
.collect(),
)
}
fn lookup(
&self,
x: isize,
y: isize,
algo: &[bool],
odd: bool,
x_rng: &RangeInclusive<isize>,
y_rng: &RangeInclusive<isize>,
) -> usize {
assert_eq!(algo.len(), 512);
let mut idx = 0;
for y_off in -1..=1 {
for x_off in -1..=1 {
let x_idx = x + x_off;
let y_idx = y + y_off;
let out_of_bounds = !(x_rng.contains(&x_idx) && y_rng.contains(&y_idx));
let val = if (odd && out_of_bounds && algo[0]) || self.0.contains(&(x_idx, y_idx)) {
1
} else {
0
};
idx <<= 1;
idx |= val;
}
}
idx
}
fn extents(&self) -> (isize, isize, isize, isize) {
self.0.iter().fold(
(isize::MAX, isize::MIN, isize::MAX, isize::MIN),
|(min_x, max_x, min_y, max_y), (x, y)| {
(min_x.min(*x), max_x.max(*x), min_y.min(*y), max_y.max(*y))
},
)
}
fn enhance(&self, algo: &[bool], odd: bool) -> Image {
let (min_x, max_x, min_y, max_y) = self.extents();
let x_rng = min_x..=max_x;
let y_rng = min_y..=max_y;
let mut new_im = HashSet::new();
for y in min_y - 1..=max_y + 1 {
for x in min_x - 1..=max_x + 1 {
let idx = self.lookup(x, y, algo, odd, &x_rng, &y_rng);
if algo[idx] {
new_im.insert((x, y));
}
}
}
Image(new_im)
}
fn lights(&self) -> usize {
self.0.len()
}
fn crop(&self, min_x: isize, max_x: isize, min_y: isize, max_y: isize) -> Image {
let x_rng = min_x..=max_x;
let y_rng = min_y..=max_y;
Image(
self.0
.iter()
.filter(|(x, y)| x_rng.contains(x) && y_rng.contains(y))
.cloned()
.collect(),
)
}
}
impl Debug for Image {
fn fmt(&self, f: &mut Formatter<'_>) -> Result<(), Error> {
let (min_x, max_x, min_y, max_y) = self.extents();
writeln!(f, "({}..{})x({}..{})", min_x, max_x, min_y, max_y)?;
for y in min_y..=max_y {
for x in min_x..=max_x {
if self.0.contains(&(x, y)) {
write!(f, "#")?;
} else {
write!(f, ".")?;
}
}
writeln!(f)?;
}
Ok(())
}
}
fn process(im: Image, algo: &[bool], num_steps: isize) -> Image {
let mut im = im;
for step in 0..num_steps {
let (min_x, max_x, min_y, max_y) = im.extents();
im = im.enhance(algo, step % 2 == 1);
im = im.crop(min_x - 1, max_x + 1, min_y - 1, max_y + 1)
}
im
}
#[aoc(day20, part1)]
fn part1(input: &str) -> Result<usize> {
let (algo, im) = input.split_once("\n\n").unwrap();
let im = Image::new(im);
let algo: Vec<bool> = algo.as_bytes().iter().map(|c| c == &b'#').collect();
let im = process(im, &algo, 2);
dbg!(&im, im.lights());
let answer = im.lights();
assert!(answer == 5268 || answer == 35);
Ok(answer)
}
#[aoc(day20, part2)]
fn part2(input: &str) -> Result<usize> {
let (algo, im) = input.split_once("\n\n").unwrap();
let im = Image::new(im);
let algo: Vec<bool> = algo.as_bytes().iter().map(|c| c == &b'#').collect();
let im = process(im, &algo, 50);
dbg!(&im, im.lights());
let answer = im.lights();
assert!(answer < 19245);
Ok(answer)
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn lookup() -> Result<()> {
let input = r#"
..#.#..#####.#.#.#.###.##.....###.##.#..###.####..#####..#....#..#..##..###..######.###...####..#..#####..##..#.#####...##.#.#..#.##..#.#......#.###.######.###.####...#.##.##..#..#..#####.....#.#....###..#.##......#.....#..#..#..##..#...##.######.####.####.#.#...#.......#..#.#.#...####.##.#......#..#...##.#.##..#...##.#.##..###.#......#.#.......#.#.#.####.###.##...#.....####.#..#..#.##.#....##..#.####....##...##..#...#......#.#.......#.......##..####..#...#.#.#...##..#.#..###..#####........#..####......#..#
#..#.
#....
##..#
..#..
..###
"#
.trim();
let (algo, im) = input.split_once("\n\n").unwrap();
let im = Image::new(im);
let algo: Vec<bool> = algo.as_bytes().iter().map(|c| c == &b'#').collect();
let (min_x, max_x, min_y, max_y) = im.extents();
assert_eq!(
im.lookup(2, 2, &algo, false, &(min_x..=max_x), &(min_y..=max_y)),
34,
);
Ok(())
}
#[test]
fn test_part1() -> Result<()> {
let input = r#"
..#.#..#####.#.#.#.###.##.....###.##.#..###.####..#####..#....#..#..##..###..######.###...####..#..#####..##..#.#####...##.#.#..#.##..#.#......#.###.######.###.####...#.##.##..#..#..#####.....#.#....###..#.##......#.....#..#..#..##..#...##.######.####.####.#.#...#.......#..#.#.#...####.##.#......#..#...##.#.##..#...##.#.##..###.#......#.#.......#.#.#.####.###.##...#.....####.#..#..#.##.#....##..#.####....##...##..#...#......#.#.......#.......##..####..#...#.#.#...##..#.#..###..#####........#..####......#..#
#..#.
#....
##..#
..#..
..###
"#
.trim();
assert_eq!(part1(input)?, 35);
Ok(())
}
#[test]
fn test_part2() -> Result<()> {
let input = r#"
..#.#..#####.#.#.#.###.##.....###.##.#..###.####..#####..#....#..#..##..###..######.###...####..#..#####..##..#.#####...##.#.#..#.##..#.#......#.###.######.###.####...#.##.##..#..#..#####.....#.#....###..#.##......#.....#..#..#..##..#...##.######.####.####.#.#...#.......#..#.#.#...####.##.#......#..#...##.#.##..#...##.#.##..###.#......#.#.......#.#.#.####.###.##...#.....####.#..#..#.##.#....##..#.####....##...##..#...#......#.#.......#.......##..####..#...#.#.#...##..#.#..###..#####........#..####......#..#
#..#.
#....
##..#
..#..
..###
"#
.trim();
assert_eq!(part2(input)?, 3351);
Ok(())
}
}

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use advent::prelude::*;
use aoc_runner_derive::aoc;
#[derive(Copy, Clone, Debug)]
struct Player {
tally: usize,
score: usize,
}
impl Player {
fn space(&self) -> usize {
(self.tally % 10) + 1
}
}
#[derive(Debug, Default)]
struct Die {
roll_count: usize,
}
impl Die {
fn roll(&mut self) -> usize {
let val = (self.roll_count % 100) + 1;
self.roll_count += 1;
val
}
}
fn take_turn(p: &mut Player, die: &mut Die) -> bool {
p.tally += die.roll() + die.roll() + die.roll();
p.score += p.space();
if p.score >= 1000 {
return true;
}
false
}
#[aoc(day21, part1)]
fn part1(input: &str) -> Result<usize> {
let mut p: Vec<_> = input
.lines()
.map(|l| l.split_once(": ").unwrap())
.map(|(_, space)| space.parse().expect("couldn't parse starting spaceition"))
.map(|space: usize| Player {
tally: space - 1,
score: 0,
})
.collect();
let mut die = Die::default();
loop {
if take_turn(&mut p[0], &mut die) {
return Ok(die.roll_count * p[1].score);
}
//println!( "Player 1 space {} for a total score of {}.", p[0].space(), p[0].score);
if take_turn(&mut p[1], &mut die) {
return Ok(die.roll_count * p[0].score);
}
//println!( "Player 2 space {} for a total score of {}.", p[1].space(), p[1].score);
}
}
fn play_part2(p1: Player, p2: Player) -> (usize, usize) {
fn play_part2_rec(
mut p1: Player,
mut p2: Player,
r1: usize,
r2: usize,
r3: usize,
r4: usize,
r5: usize,
r6: usize,
) -> (usize, usize) {
//println!( "p1 {} {} p2 {} {} die {} {} {} {} {} {}", p1.score, p1.space(), p2.score, p2.space(), r1, r2, r3, r4, r5, r6,);
p1.tally += r1 + r2 + r3;
p1.score += p1.space();
if p1.score >= 21 {
return (1, 0);
}
p2.tally += r4 + r5 + r6;
p2.score += p2.space();
if p2.score >= 21 {
return (0, 1);
}
let mut p1_score = 0;
let mut p2_score = 0;
for i in [1, 2, 3] {
for j in [1, 2, 3] {
for k in [1, 2, 3] {
for x in [1, 2, 3] {
for y in [1, 2, 3] {
for z in [1, 2, 3] {
let (p1s, p2s) = play_part2_rec(p1, p2, i, j, k, x, y, z);
p1_score += p1s;
p2_score += p2s;
}
}
}
}
}
}
(p1_score, p2_score)
}
let mut p1_score = 0;
let mut p2_score = 0;
for i in [1, 2, 3] {
for j in [1, 2, 3] {
for k in [1, 2, 3] {
for x in [1, 2, 3] {
for y in [1, 2, 3] {
for z in [1, 2, 3] {
let (p1s, p2s) = play_part2_rec(p1, p2, i, j, k, x, y, z);
p1_score += p1s;
p2_score += p2s;
println!("Running score {} vs {}", p1_score, p2_score);
}
}
}
}
}
}
(p1_score, p2_score)
}
//#[aoc(day21, part2)]
fn part2(input: &str) -> Result<usize> {
let p: Vec<_> = input
.lines()
.map(|l| l.split_once(": ").unwrap())
.map(|(_, space)| space.parse().expect("couldn't parse starting spaceition"))
.map(|space: usize| Player {
tally: space - 1,
score: 0,
})
.collect();
let (p1_wins, p2_wins) = play_part2(p[0], p[1]);
Ok(if p1_wins > p2_wins { p1_wins } else { p2_wins })
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_part1() -> Result<()> {
let input = r#"
Player 1 starting position: 4
Player 2 starting position: 8
"#
.trim();
assert_eq!(part1(input)?, 739785);
Ok(())
}
//#[test]
fn test_part2() -> Result<()> {
let input = r#"
Player 1 starting position: 4
Player 2 starting position: 8
"#
.trim();
assert_eq!(part2(input)?, 444356092776315);
Ok(())
}
}

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use advent::prelude::*;
use aoc_runner_derive::aoc;
#[derive(Debug)]
struct Instruction {
on: bool,
x_rng: RangeInclusive<i64>,
y_rng: RangeInclusive<i64>,
z_rng: RangeInclusive<i64>,
}
impl FromStr for Instruction {
type Err = Infallible;
fn from_str(input: &str) -> std::result::Result<Instruction, Infallible> {
// on x=11..13,y=11..13,z=11..13
// off x=9..11,y=9..11,z=9..11
let (verb, rest) = input.split_once(' ').unwrap();
let on = match verb {
"on" => true,
"off" => false,
_ => unreachable!("unexpected instruction type"),
};
let parts: Vec<_> = rest.split(',').collect();
let parse_rng = |s: &str| -> RangeInclusive<i64> {
s.split_once('=')
.unwrap()
.1
.split_once("..")
.map(|(lo, hi)| (lo.parse().unwrap(), hi.parse().unwrap()))
.map(|(lo, hi)| lo..=hi)
.unwrap()
};
let x_rng = parse_rng(parts[0]);
let y_rng = parse_rng(parts[1]);
let z_rng = parse_rng(parts[2]);
Ok(Instruction {
on,
x_rng,
y_rng,
z_rng,
})
}
}
fn part1_apply(insts: Vec<Instruction>) -> usize {
let mut grid = HashSet::new();
for inst in &insts {
dbg!(&inst);
for x in inst.x_rng.clone() {
for y in inst.y_rng.clone() {
for z in inst.z_rng.clone() {
if inst.on {
grid.insert((x, y, z));
} else {
grid.remove(&(x, y, z));
}
}
}
}
}
grid.len()
}
fn inbounds(r: &RangeInclusive<i64>) -> bool {
// lazy but good enough for part1
r.start().abs() <= 50
}
#[aoc(day22, part1)]
fn part1(input: &str) -> Result<usize> {
let insts: Vec<Instruction> = input
.lines()
.map(|l| l.parse().expect("failed to parse instruction"))
.filter(|i: &Instruction| inbounds(&i.x_rng) && inbounds(&i.y_rng) && inbounds(&i.z_rng))
.collect();
dbg!(&insts);
Ok(part1_apply(insts))
}
//#[aoc(day22, part2)]
fn part2(input: &str) -> Result<usize> {
let insts: Vec<Instruction> = input
.lines()
.map(|l| l.parse().expect("failed to parse instruction"))
.collect();
dbg!(&insts);
for i in insts {
if i.x_rng.end()
- i.x_rng.start() * i.y_rng.end()
- i.y_rng.start() * i.z_rng.end()
- i.z_rng.start()
== 2758514936282235
{
println!("magic instructions {:?}", i)
}
}
Ok(0)
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_part1() -> Result<()> {
let input = r#"
on x=10..12,y=10..12,z=10..12
on x=11..13,y=11..13,z=11..13
off x=9..11,y=9..11,z=9..11
on x=10..10,y=10..10,z=10..10
"#
.trim();
assert_eq!(part1(input)?, 39);
let input = r#"
on x=-20..26,y=-36..17,z=-47..7
on x=-20..33,y=-21..23,z=-26..28
on x=-22..28,y=-29..23,z=-38..16
on x=-46..7,y=-6..46,z=-50..-1
on x=-49..1,y=-3..46,z=-24..28
on x=2..47,y=-22..22,z=-23..27
on x=-27..23,y=-28..26,z=-21..29
on x=-39..5,y=-6..47,z=-3..44
on x=-30..21,y=-8..43,z=-13..34
on x=-22..26,y=-27..20,z=-29..19
off x=-48..-32,y=26..41,z=-47..-37
on x=-12..35,y=6..50,z=-50..-2
off x=-48..-32,y=-32..-16,z=-15..-5
on x=-18..26,y=-33..15,z=-7..46
off x=-40..-22,y=-38..-28,z=23..41
on x=-16..35,y=-41..10,z=-47..6
off x=-32..-23,y=11..30,z=-14..3
on x=-49..-5,y=-3..45,z=-29..18
off x=18..30,y=-20..-8,z=-3..13
on x=-41..9,y=-7..43,z=-33..15
on x=-54112..-39298,y=-85059..-49293,z=-27449..7877
on x=967..23432,y=45373..81175,z=27513..53682
"#
.trim();
assert_eq!(part1(input)?, 590784);
Ok(())
}
//#[test]
fn test_part2() -> Result<()> {
let input = r#"
on x=-5..47,y=-31..22,z=-19..33
on x=-44..5,y=-27..21,z=-14..35
on x=-49..-1,y=-11..42,z=-10..38
on x=-20..34,y=-40..6,z=-44..1
off x=26..39,y=40..50,z=-2..11
on x=-41..5,y=-41..6,z=-36..8
off x=-43..-33,y=-45..-28,z=7..25
on x=-33..15,y=-32..19,z=-34..11
off x=35..47,y=-46..-34,z=-11..5
on x=-14..36,y=-6..44,z=-16..29
on x=-57795..-6158,y=29564..72030,z=20435..90618
on x=36731..105352,y=-21140..28532,z=16094..90401
on x=30999..107136,y=-53464..15513,z=8553..71215
on x=13528..83982,y=-99403..-27377,z=-24141..23996
on x=-72682..-12347,y=18159..111354,z=7391..80950
on x=-1060..80757,y=-65301..-20884,z=-103788..-16709
on x=-83015..-9461,y=-72160..-8347,z=-81239..-26856
on x=-52752..22273,y=-49450..9096,z=54442..119054
on x=-29982..40483,y=-108474..-28371,z=-24328..38471
on x=-4958..62750,y=40422..118853,z=-7672..65583
on x=55694..108686,y=-43367..46958,z=-26781..48729
on x=-98497..-18186,y=-63569..3412,z=1232..88485
on x=-726..56291,y=-62629..13224,z=18033..85226
on x=-110886..-34664,y=-81338..-8658,z=8914..63723
on x=-55829..24974,y=-16897..54165,z=-121762..-28058
on x=-65152..-11147,y=22489..91432,z=-58782..1780
on x=-120100..-32970,y=-46592..27473,z=-11695..61039
on x=-18631..37533,y=-124565..-50804,z=-35667..28308
on x=-57817..18248,y=49321..117703,z=5745..55881
on x=14781..98692,y=-1341..70827,z=15753..70151
on x=-34419..55919,y=-19626..40991,z=39015..114138
on x=-60785..11593,y=-56135..2999,z=-95368..-26915
on x=-32178..58085,y=17647..101866,z=-91405..-8878
on x=-53655..12091,y=50097..105568,z=-75335..-4862
on x=-111166..-40997,y=-71714..2688,z=5609..50954
on x=-16602..70118,y=-98693..-44401,z=5197..76897
on x=16383..101554,y=4615..83635,z=-44907..18747
off x=-95822..-15171,y=-19987..48940,z=10804..104439
on x=-89813..-14614,y=16069..88491,z=-3297..45228
on x=41075..99376,y=-20427..49978,z=-52012..13762
on x=-21330..50085,y=-17944..62733,z=-112280..-30197
on x=-16478..35915,y=36008..118594,z=-7885..47086
off x=-98156..-27851,y=-49952..43171,z=-99005..-8456
off x=2032..69770,y=-71013..4824,z=7471..94418
on x=43670..120875,y=-42068..12382,z=-24787..38892
off x=37514..111226,y=-45862..25743,z=-16714..54663
off x=25699..97951,y=-30668..59918,z=-15349..69697
off x=-44271..17935,y=-9516..60759,z=49131..112598
on x=-61695..-5813,y=40978..94975,z=8655..80240
off x=-101086..-9439,y=-7088..67543,z=33935..83858
off x=18020..114017,y=-48931..32606,z=21474..89843
off x=-77139..10506,y=-89994..-18797,z=-80..59318
off x=8476..79288,y=-75520..11602,z=-96624..-24783
on x=-47488..-1262,y=24338..100707,z=16292..72967
off x=-84341..13987,y=2429..92914,z=-90671..-1318
off x=-37810..49457,y=-71013..-7894,z=-105357..-13188
off x=-27365..46395,y=31009..98017,z=15428..76570
off x=-70369..-16548,y=22648..78696,z=-1892..86821
on x=-53470..21291,y=-120233..-33476,z=-44150..38147
off x=-93533..-4276,y=-16170..68771,z=-104985..-24507
"#
.trim();
assert_eq!(part2(input)?, 2758514936282235);
Ok(())
}
}

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use advent::prelude::*;
use aoc_runner_derive::aoc;
#[aoc(day23, part1)]
fn part1(input: &str) -> Result<usize> {
todo!("part1");
Ok(0)
}
/*
#[aoc(day23, part2)]
fn part2(input: &str) -> Result<usize> {
todo!("part2");
Ok(0)
}
*/
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_part1() -> Result<()> {
let input = r#"
"#
.trim();
assert_eq!(part1(input)?, usize::MAX);
Ok(())
}
/*
#[test]
fn test_part2()->Result<()> {
let input = r#"
"#
.trim();
assert_eq!(part2(input)?, usize::MAX);
Ok(())
}
*/
}

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//! --- Day 3: Binary Diagnostic ---
//! The submarine has been making some odd creaking noises, so you ask it to produce a diagnostic report just in case.
//!
//! The diagnostic report (your puzzle input) consists of a list of binary numbers which, when decoded properly, can tell you many useful things about the conditions of the submarine. The first parameter to check is the power consumption.
//!
//! You need to use the binary numbers in the diagnostic report to generate two new binary numbers (called the gamma rate and the epsilon rate). The power consumption can then be found by multiplying the gamma rate by the epsilon rate.
//!
//! Each bit in the gamma rate can be determined by finding the most common bit in the corresponding position of all numbers in the diagnostic report. For example, given the following diagnostic report:
//!
//! 00100
//! 11110
//! 10110
//! 10111
//! 10101
//! 01111
//! 00111
//! 11100
//! 10000
//! 11001
//! 00010
//! 01010
//! Considering only the first bit of each number, there are five 0 bits and seven 1 bits. Since the most common bit is 1, the first bit of the gamma rate is 1.
//!
//! The most common second bit of the numbers in the diagnostic report is 0, so the second bit of the gamma rate is 0.
//!
//! The most common value of the third, fourth, and fifth bits are 1, 1, and 0, respectively, and so the final three bits of the gamma rate are 110.
//!
//! So, the gamma rate is the binary number 10110, or 22 in decimal.
//!
//! The epsilon rate is calculated in a similar way; rather than use the most common bit, the least common bit from each position is used. So, the epsilon rate is 01001, or 9 in decimal. Multiplying the gamma rate (22) by the epsilon rate (9) produces the power consumption, 198.
//!
//! Use the binary numbers in your diagnostic report to calculate the gamma rate and epsilon rate, then multiply them together. What is the power consumption of the submarine? (Be sure to represent your answer in decimal, not binary.)
//!
//! --- Part Two ---
//! Next, you should verify the life support rating, which can be determined by multiplying the oxygen generator rating by the CO2 scrubber rating.
//!
//! Both the oxygen generator rating and the CO2 scrubber rating are values that can be found in your diagnostic report - finding them is the tricky part. Both values are located using a similar process that involves filtering out values until only one remains. Before searching for either rating value, start with the full list of binary numbers from your diagnostic report and consider just the first bit of those numbers. Then:
//!
//! Keep only numbers selected by the bit criteria for the type of rating value for which you are searching. Discard numbers which do not match the bit criteria.
//! If you only have one number left, stop; this is the rating value for which you are searching.
//! Otherwise, repeat the process, considering the next bit to the right.
//! The bit criteria depends on which type of rating value you want to find:
//!
//! To find oxygen generator rating, determine the most common value (0 or 1) in the current bit position, and keep only numbers with that bit in that position. If 0 and 1 are equally common, keep values with a 1 in the position being considered.
//! To find CO2 scrubber rating, determine the least common value (0 or 1) in the current bit position, and keep only numbers with that bit in that position. If 0 and 1 are equally common, keep values with a 0 in the position being considered.
//! For example, to determine the oxygen generator rating value using the same example diagnostic report from above:
//!
//! Start with all 12 numbers and consider only the first bit of each number. There are more 1 bits (7) than 0 bits (5), so keep only the 7 numbers with a 1 in the first position: 11110, 10110, 10111, 10101, 11100, 10000, and 11001.
//! Then, consider the second bit of the 7 remaining numbers: there are more 0 bits (4) than 1 bits (3), so keep only the 4 numbers with a 0 in the second position: 10110, 10111, 10101, and 10000.
//! In the third position, three of the four numbers have a 1, so keep those three: 10110, 10111, and 10101.
//! In the fourth position, two of the three numbers have a 1, so keep those two: 10110 and 10111.
//! In the fifth position, there are an equal number of 0 bits and 1 bits (one each). So, to find the oxygen generator rating, keep the number with a 1 in that position: 10111.
//! As there is only one number left, stop; the oxygen generator rating is 10111, or 23 in decimal.
//! Then, to determine the CO2 scrubber rating value from the same example above:
//!
//! Start again with all 12 numbers and consider only the first bit of each number. There are fewer 0 bits (5) than 1 bits (7), so keep only the 5 numbers with a 0 in the first position: 00100, 01111, 00111, 00010, and 01010.
//! Then, consider the second bit of the 5 remaining numbers: there are fewer 1 bits (2) than 0 bits (3), so keep only the 2 numbers with a 1 in the second position: 01111 and 01010.
//! In the third position, there are an equal number of 0 bits and 1 bits (one each). So, to find the CO2 scrubber rating, keep the number with a 0 in that position: 01010.
//! As there is only one number left, stop; the CO2 scrubber rating is 01010, or 10 in decimal.
//! Finally, to find the life support rating, multiply the oxygen generator rating (23) by the CO2 scrubber rating (10) to get 230.
//!
//! Use the binary numbers in your diagnostic report to calculate the oxygen generator rating and CO2 scrubber rating, then multiply them together. What is the life support rating of the submarine? (Be sure to represent your answer in decimal, not binary.)
use std::fmt::{Debug, Error, Formatter};
use anyhow::Result;
use aoc_runner_derive::aoc;
#[aoc(day3, part1)]
fn part1(input: &str) -> Result<u64> {
let lines: Vec<_> = input.trim().split('\n').collect();
let num_bits = lines[0].len();
let majority = lines.len() / 2;
let mut bits = vec![0; num_bits];
lines.iter().for_each(|l| {
for (i, c) in l.chars().enumerate() {
if c == '1' {
bits[i] += 1;
}
}
});
let mut gamma: u64 = 0;
for (i, &b) in bits.iter().rev().enumerate() {
if b > majority {
gamma |= 1 << i;
}
}
let mask = (1 << (num_bits)) - 1;
let epsilon = (!gamma) & mask;
Ok(epsilon * gamma)
}
fn oxygen(nums: &[u64], num_bits: usize) -> u64 {
partition(nums, num_bits - 1, Partition::Oxygen)
}
fn co2(nums: &[u64], num_bits: usize) -> u64 {
partition(nums, num_bits - 1, Partition::CO2)
}
#[derive(Copy, Clone, Debug)]
enum Partition {
Oxygen,
CO2,
}
struct Binaries<'a>(&'a [u64]);
impl<'a> Debug for Binaries<'a> {
fn fmt(&self, f: &mut Formatter<'_>) -> Result<(), Error> {
writeln!(f, "[")?;
for n in self.0.iter() {
writeln!(f, " 0b{:08b},", n)?;
}
writeln!(f, "]")?;
Ok(())
}
}
fn partition(nums: &[u64], bit_offset: usize, partition_type: Partition) -> u64 {
let (one, zero): (Vec<u64>, Vec<u64>) =
nums.iter().partition(|n| (*n & (1 << bit_offset)) != 0);
let remainder = match partition_type {
Partition::Oxygen => {
if one.len() >= zero.len() {
one
} else {
zero
}
}
Partition::CO2 => {
if one.len() >= zero.len() {
zero
} else {
one
}
}
};
if remainder.len() == 1 {
return remainder[0];
}
partition(&remainder, bit_offset - 1, partition_type)
}
#[aoc(day3, part2)]
fn part2(input: &str) -> Result<u64> {
let lines: Vec<_> = input.trim().split('\n').collect();
let nums: Vec<_> = lines
.iter()
.map(|s| u64::from_str_radix(s, 2))
.collect::<Result<_, std::num::ParseIntError>>()?;
let num_bits = lines[0].chars().count();
let o = oxygen(&nums, num_bits);
let c = co2(&nums, num_bits);
Ok(o * c)
}
#[test]
fn test_part1() -> Result<()> {
let input = r#"
00100
11110
10110
10111
10101
01111
00111
11100
10000
11001
00010
01010
"#
.trim();
assert_eq!(part1(input)?, 198);
Ok(())
}
#[test]
fn test_part2() -> Result<()> {
let input = r#"
00100
11110
10110
10111
10101
01111
00111
11100
10000
11001
00010
01010
"#
.trim();
assert_eq!(part2(input)?, 230);
Ok(())
}

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//! --- Day 4: Giant Squid ---
//! You're already almost 1.5km (almost a mile) below the surface of the ocean, already so deep that you can't see any sunlight. What you can see, however, is a giant squid that has attached itself to the outside of your submarine.
//!
//! Maybe it wants to play bingo?
//!
//! Bingo is played on a set of boards each consisting of a 5x5 grid of numbers. Numbers are chosen at random, and the chosen number is marked on all boards on which it appears. (Numbers may not appear on all boards.) If all numbers in any row or any column of a board are marked, that board wins. (Diagonals don't count.)
//!
//! The submarine has a bingo subsystem to help passengers (currently, you and the giant squid) pass the time. It automatically generates a random order in which to draw numbers and a random set of boards (your puzzle input). For example:
//!
//! 7,4,9,5,11,17,23,2,0,14,21,24,10,16,13,6,15,25,12,22,18,20,8,19,3,26,1
//!
//! 22 13 17 11 0
//! 8 2 23 4 24
//! 21 9 14 16 7
//! 6 10 3 18 5
//! 1 12 20 15 19
//!
//! 3 15 0 2 22
//! 9 18 13 17 5
//! 19 8 7 25 23
//! 20 11 10 24 4
//! 14 21 16 12 6
//!
//! 14 21 17 24 4
//! 10 16 15 9 19
//! 18 8 23 26 20
//! 22 11 13 6 5
//! 2 0 12 3 7
//! After the first five numbers are drawn (7, 4, 9, 5, and 11), there are no winners, but the boards are marked as follows (shown here adjacent to each other to save space):
//!
//! 22 13 17 11 0 3 15 0 2 22 14 21 17 24 4
//! 8 2 23 4 24 9 18 13 17 5 10 16 15 9 19
//! 21 9 14 16 7 19 8 7 25 23 18 8 23 26 20
//! 6 10 3 18 5 20 11 10 24 4 22 11 13 6 5
//! 1 12 20 15 19 14 21 16 12 6 2 0 12 3 7
//! After the next six numbers are drawn (17, 23, 2, 0, 14, and 21), there are still no winners:
//!
//! 22 13 17 11 0 3 15 0 2 22 14 21 17 24 4
//! 8 2 23 4 24 9 18 13 17 5 10 16 15 9 19
//! 21 9 14 16 7 19 8 7 25 23 18 8 23 26 20
//! 6 10 3 18 5 20 11 10 24 4 22 11 13 6 5
//! 1 12 20 15 19 14 21 16 12 6 2 0 12 3 7
//! Finally, 24 is drawn:
//!
//! 22 13 17 11 0 3 15 0 2 22 14 21 17 24 4
//! 8 2 23 4 24 9 18 13 17 5 10 16 15 9 19
//! 21 9 14 16 7 19 8 7 25 23 18 8 23 26 20
//! 6 10 3 18 5 20 11 10 24 4 22 11 13 6 5
//! 1 12 20 15 19 14 21 16 12 6 2 0 12 3 7
//! At this point, the third board wins because it has at least one complete row or column of marked numbers (in this case, the entire top row is marked: 14 21 17 24 4).
//!
//! The score of the winning board can now be calculated. Start by finding the sum of all unmarked numbers on that board; in this case, the sum is 188. Then, multiply that sum by the number that was just called when the board won, 24, to get the final score, 188 * 24 = 4512.
//!
//! To guarantee victory against the giant squid, figure out which board will win first. What will your final score be if you choose that board?
//!
//! --- Part Two ---
//! On the other hand, it might be wise to try a different strategy: let the giant squid win.
//!
//! You aren't sure how many bingo boards a giant squid could play at once, so rather than waste time counting its arms, the safe thing to do is to figure out which board will win last and choose that one. That way, no matter which boards it picks, it will win for sure.
//!
//! In the above example, the second board is the last to win, which happens after 13 is eventually called and its middle column is completely marked. If you were to keep playing until this point, the second board would have a sum of unmarked numbers equal to 148 for a final score of 148 * 13 = 1924.
//!
//! Figure out which board will win last. Once it wins, what would its final score be?
use std::{
collections::{HashMap, HashSet},
fmt::{Debug, Error, Formatter},
num::ParseIntError,
str::FromStr,
};
use ansi_term::Color::Green;
use anyhow::Result;
use aoc_runner_derive::aoc;
use thiserror::Error;
#[derive(Debug, Default)]
struct Game {
numbers: Vec<u64>,
boards: Vec<Board>,
skip_boards: HashSet<usize>,
}
#[derive(Debug, Error)]
enum GameError {
#[error("couldn't parse number {0}")]
ParseIntError(#[from] ParseIntError),
#[error("couldn't parse board {0}")]
BoardError(#[from] BoardError),
}
impl Game {
// If return not None, it contains a winning board
fn apply_number(&mut self, number: u64) -> Option<&Board> {
for b in &mut self.boards {
b.mark(number);
if b.is_bingo() {
return Some(b);
}
}
None
}
// If return not None, it contains a winning board. This will remove winning boards until only
// one remains.
fn apply_number_part2(&mut self, number: u64) -> Option<&Board> {
let num_boards = self.boards.len();
for (idx, b) in self.boards.iter_mut().enumerate() {
if self.skip_boards.contains(&idx) {
continue;
}
b.mark(number);
if b.is_bingo() {
self.skip_boards.insert(idx);
if self.skip_boards.len() == num_boards {
return Some(b);
}
}
}
None
}
}
impl FromStr for Game {
type Err = GameError;
fn from_str(s: &str) -> Result<Self, Self::Err> {
let mut it = s.split("\n\n");
let numbers = it
.next()
.unwrap()
.split(',')
.map(|s| s.parse())
.collect::<Result<_, ParseIntError>>()?;
let boards: Vec<_> = it.map(|s| s.parse()).collect::<Result<_, BoardError>>()?;
Ok(Game {
numbers,
boards,
skip_boards: Default::default(),
})
}
}
#[derive(Default)]
struct MarkerBoard(u32);
impl MarkerBoard {
fn mark(&mut self, (x, y): (usize, usize)) {
let bit = 1 << (x + y * 5);
self.0 |= bit;
}
fn is_marked(&self, (x, y): (usize, usize)) -> bool {
let bit = 1 << (x + y * 5);
(self.0 & bit) != 0
}
fn is_bingo(&self) -> bool {
let h = 0b11111;
#[allow(clippy::unusual_byte_groupings)]
let v = 0b00001_00001_00001_00001_00001;
let m = self.0;
// Bingo horizontally
(m & h == h)
|| ((m >> 5 & h) == h)
|| ((m >> 10 & h) == h)
|| ((m >> 15 & h) == h)
|| ((m >> 20 & h) == h)
// Bingo vertically
|| ((m & v) == v)
|| ((m >> 1 & v) == v)
|| ((m >> 2 & v) == v)
|| ((m >> 3 & v) == v)
|| ((m >> 4 & v) == v)
}
}
#[derive(Default)]
struct Board {
numbers: HashMap<(usize, usize), u64>,
marked: MarkerBoard,
}
#[derive(Debug, Error)]
enum BoardError {
#[error("couldn't parse number {0}")]
ParseIntError(#[from] ParseIntError),
}
impl Board {
fn is_bingo(&self) -> bool {
self.marked.is_bingo()
}
fn sum_uncovered(&self) -> u64 {
self.numbers
.iter()
.map(|((x, y), v)| {
if !self.marked.is_marked((*x, *y)) {
*v
} else {
0
}
})
.sum()
}
// Returns true if board has num.
fn mark(&mut self, num: u64) -> bool {
for ((x, y), v) in self.numbers.iter() {
if *v == num {
self.marked.mark((*x, *y));
return true;
}
}
false
}
}
impl Debug for Board {
fn fmt(&self, f: &mut Formatter<'_>) -> Result<(), Error> {
writeln!(f)?;
for y in 0..5 {
for x in 0..5 {
if self.marked.is_marked((x, y)) {
let v = format!("{:3}", self.numbers[&(x, y)]);
write!(f, "{}", Green.bold().paint(v))?;
} else {
write!(f, "{:3}", self.numbers[&(x, y)])?;
}
}
writeln!(f)?;
}
Ok(())
}
}
impl FromStr for Board {
type Err = BoardError;
fn from_str(s: &str) -> Result<Self, Self::Err> {
let numbers: Vec<Vec<_>> = s
.split('\n')
.map(|l| {
l.split(' ')
// Remove the double space that happens before single digit cells.
.filter(|c| !c.is_empty())
.map(|c| c.parse())
.collect::<Result<_, ParseIntError>>()
})
.collect::<Result<_, ParseIntError>>()?;
let numbers: HashMap<_, _> = numbers
.iter()
.enumerate()
.flat_map(|(y, row)| row.iter().enumerate().map(move |(x, c)| ((x, y), *c)))
.collect();
Ok(Board {
numbers,
marked: Default::default(),
})
}
}
#[aoc(day4, part1)]
fn part1(input: &str) -> Result<u64> {
let mut g: Game = input.parse()?;
let numbers = g.numbers.clone();
for n in numbers {
if let Some(b) = g.apply_number(n) {
//println!("winning board {:?}", b);
return Ok(n as u64 * b.sum_uncovered());
}
}
unreachable!("We should have had a winner by now");
}
#[aoc(day4, part2)]
fn part2(input: &str) -> Result<u64> {
let mut g: Game = input.parse()?;
let numbers = g.numbers.clone();
for n in numbers {
if let Some(b) = g.apply_number_part2(n) {
//println!("winning board {:?}", b);
return Ok(n as u64 * b.sum_uncovered());
}
}
unreachable!("We should have had a winner by now");
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_board() -> Result<()> {
let input = r#"
14 21 17 24 4
10 16 15 9 19
18 8 23 26 20
22 11 13 6 5
2 0 12 3 7
"#
.trim();
let mut b = Board::from_str(input)?;
assert!(!b.is_bingo());
assert!(!b.mark(100));
for num in &[7, 4, 9, 5, 11, 17, 23, 2, 0, 14, 21, 24] {
assert!(b.mark(*num));
}
assert!(b.is_bingo());
assert_eq!(b.sum_uncovered(), 188);
Ok(())
}
#[test]
fn test_part1() -> Result<()> {
let input = r#"
7,4,9,5,11,17,23,2,0,14,21,24,10,16,13,6,15,25,12,22,18,20,8,19,3,26,1
22 13 17 11 0
8 2 23 4 24
21 9 14 16 7
6 10 3 18 5
1 12 20 15 19
3 15 0 2 22
9 18 13 17 5
19 8 7 25 23
20 11 10 24 4
14 21 16 12 6
14 21 17 24 4
10 16 15 9 19
18 8 23 26 20
22 11 13 6 5
2 0 12 3 7
"#
.trim();
assert_eq!(part1(input)?, 4512);
Ok(())
}
#[test]
fn test_part2() -> Result<()> {
let input = r#"
7,4,9,5,11,17,23,2,0,14,21,24,10,16,13,6,15,25,12,22,18,20,8,19,3,26,1
22 13 17 11 0
8 2 23 4 24
21 9 14 16 7
6 10 3 18 5
1 12 20 15 19
3 15 0 2 22
9 18 13 17 5
19 8 7 25 23
20 11 10 24 4
14 21 16 12 6
14 21 17 24 4
10 16 15 9 19
18 8 23 26 20
22 11 13 6 5
2 0 12 3 7
"#
.trim();
assert_eq!(part2(input)?, 1924);
Ok(())
}
}

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//!
//! --- Day 5: Hydrothermal Venture ---
//! You come across a field of hydrothermal vents on the ocean floor! These vents constantly produce large, opaque clouds, so it would be best to avoid them if possible.
//!
//! They tend to form in lines; the submarine helpfully produces a list of nearby lines of vents (your puzzle input) for you to review. For example:
//!
//! 0,9 -> 5,9
//! 8,0 -> 0,8
//! 9,4 -> 3,4
//! 2,2 -> 2,1
//! 7,0 -> 7,4
//! 6,4 -> 2,0
//! 0,9 -> 2,9
//! 3,4 -> 1,4
//! 0,0 -> 8,8
//! 5,5 -> 8,2
//! Each line of vents is given as a line segment in the format x1,y1 -> x2,y2 where x1,y1 are the coordinates of one end the line segment and x2,y2 are the coordinates of the other end. These line segments include the points at both ends. In other words:
//!
//! An entry like 1,1 -> 1,3 covers points 1,1, 1,2, and 1,3.
//! An entry like 9,7 -> 7,7 covers points 9,7, 8,7, and 7,7.
//! For now, only consider horizontal and vertical lines: lines where either x1 = x2 or y1 = y2.
//!
//! So, the horizontal and vertical lines from the above list would produce the following diagram:
//!
//! .......1..
//! ..1....1..
//! ..1....1..
//! .......1..
//! .112111211
//! ..........
//! ..........
//! ..........
//! ..........
//! 222111....
//! In this diagram, the top left corner is 0,0 and the bottom right corner is 9,9. Each position is shown as the number of lines which cover that point or . if no line covers that point. The top-left pair of 1s, for example, comes from 2,2 -> 2,1; the very bottom row is formed by the overlapping lines 0,9 -> 5,9 and 0,9 -> 2,9.
//!
//! To avoid the most dangerous areas, you need to determine the number of points where at least two lines overlap. In the above example, this is anywhere in the diagram with a 2 or larger - a total of 5 points.
//!
//! Consider only horizontal and vertical lines. At how many points do at least two lines overlap?
//!
//! --- Part Two ---
//! Unfortunately, considering only horizontal and vertical lines doesn't give you the full picture; you need to also consider diagonal lines.
//!
//! Because of the limits of the hydrothermal vent mapping system, the lines in your list will only ever be horizontal, vertical, or a diagonal line at exactly 45 degrees. In other words:
//!
//! An entry like 1,1 -> 3,3 covers points 1,1, 2,2, and 3,3.
//! An entry like 9,7 -> 7,9 covers points 9,7, 8,8, and 7,9.
//! Considering all lines from the above example would now produce the following diagram:
//!
//! 1.1....11.
//! .111...2..
//! ..2.1.111.
//! ...1.2.2..
//! .112313211
//! ...1.2....
//! ..1...1...
//! .1.....1..
//! 1.......1.
//! 222111....
//! You still need to determine the number of points where at least two lines overlap. In the above example, this is still anywhere in the diagram with a 2 or larger - now a total of 12 points.
//!
//! Consider all of the lines. At how many points do at least two lines overlap?
use std::{
fmt::{Debug, Error, Formatter},
num::ParseIntError,
ops::{Index, IndexMut},
str::FromStr,
};
use anyhow::Result;
use aoc_runner_derive::{aoc, aoc_generator};
use thiserror::Error;
#[derive(Debug)]
struct Point {
x: i32,
y: i32,
}
struct Line {
p0: Point,
p1: Point,
}
#[derive(Debug, Error)]
enum LineError {
#[error("couldn't parse number {0}")]
ParseIntError(#[from] ParseIntError),
#[error("input truncated")]
PrematureEOL,
}
impl Debug for Line {
fn fmt(&self, f: &mut Formatter<'_>) -> Result<(), Error> {
writeln!(
f,
"{},{} -> {},{}",
self.p0.x, self.p0.y, self.p1.x, self.p1.y,
)
}
}
impl FromStr for Line {
type Err = LineError;
fn from_str(s: &str) -> Result<Self, Self::Err> {
let mut it = s.split(' ');
let parse_point = |it: &mut dyn Iterator<Item = &str>| -> Result<Point, LineError> {
let p = it.next().ok_or(LineError::PrematureEOL)?;
let nums: Vec<_> = p
.split(',')
.map(|n| n.parse())
.collect::<Result<_, ParseIntError>>()?;
Ok(Point {
x: nums[0],
y: nums[1],
})
};
let p0 = parse_point(&mut it)?;
let _ = it.next().ok_or(LineError::PrematureEOL)?;
let p1 = parse_point(&mut it)?;
Ok(Line { p0, p1 })
}
}
struct Image {
width: usize,
height: usize,
pixels: Vec<u32>,
}
impl Image {
fn new(width: usize, height: usize) -> Image {
Image {
width,
height,
pixels: vec![0; width * height],
}
}
fn answer(&self) -> u32 {
self.pixels.iter().filter(|&v| *v > 1).count() as u32
}
}
impl Index<(usize, usize)> for Image {
type Output = u32;
fn index(&self, (x, y): (usize, usize)) -> &Self::Output {
&self.pixels[x + y * self.width]
}
}
impl IndexMut<(usize, usize)> for Image {
fn index_mut(&mut self, (x, y): (usize, usize)) -> &mut Self::Output {
&mut self.pixels[x + y * self.width]
}
}
impl Debug for Image {
fn fmt(&self, f: &mut Formatter<'_>) -> Result<(), Error> {
writeln!(f, "({}, {})", self.width, self.height)?;
for y in 0..self.height {
for x in 0..self.width {
let v = self[(x, y)];
if v == 0 {
write!(f, ".")?;
} else {
write!(f, "{}", v)?;
}
}
writeln!(f)?;
}
writeln!(f)?;
Ok(())
}
}
#[aoc_generator(day5)]
fn parse(input: &str) -> Result<Vec<Line>> {
Ok(input
.split('\n')
.map(|l| l.parse())
.collect::<Result<_, LineError>>()?)
}
fn draw(im: &mut Image, l: &Line) {
let dx = l.p1.x - l.p0.x;
let dy = l.p1.y - l.p0.y;
if dx == 0 {
let x = l.p0.x as usize;
let sy = l.p0.y;
let ey = l.p1.y;
let (sy, ey) = if sy > ey { (ey, sy) } else { (sy, ey) };
for y in sy..=ey {
im[(x, y as usize)] += 1;
}
} else if dy == 0 {
let y = l.p0.y as usize;
let sx = l.p0.x;
let ex = l.p1.x;
let (sx, ex) = if sx > ex { (ex, sx) } else { (sx, ex) };
for x in sx..=ex {
im[(x as usize, y)] += 1;
}
} else {
// We only support 45 degree angles.
assert_eq!(dx.abs(), dy.abs());
let dx = dx / dx.abs();
let dy = dy / dy.abs();
let mut x = l.p0.x;
let mut y = l.p0.y;
while x != l.p1.x && y != l.p1.y {
im[(x as usize, y as usize)] += 1;
x += dx;
y += dy;
}
im[(x as usize, y as usize)] += 1;
}
}
#[aoc(day5, part1)]
fn part1(lines: &[Line]) -> Result<u32> {
let width = lines
.iter()
.map(|l| l.p0.x.max(l.p1.x) as usize)
.max()
.expect("couldn't find max width")
+ 1;
let height = lines
.iter()
.map(|l| l.p0.y.max(l.p1.y) as usize)
.max()
.expect("couldn't find max height")
+ 1;
let mut im = Image::new(width, height);
for l in lines
.iter()
.filter(|l| l.p0.x == l.p1.x || l.p0.y == l.p1.y)
{
draw(&mut im, l);
}
Ok(im.answer())
}
#[aoc(day5, part2)]
fn part2(lines: &[Line]) -> Result<u32> {
let width = lines
.iter()
.map(|l| l.p0.x.max(l.p1.x) as usize)
.max()
.expect("couldn't find max width")
+ 1;
let height = lines
.iter()
.map(|l| l.p0.y.max(l.p1.y) as usize)
.max()
.expect("couldn't find max height")
+ 1;
let mut im = Image::new(width, height);
for l in lines {
draw(&mut im, l);
}
Ok(im.answer())
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_part1() -> Result<()> {
let input = r#"
0,9 -> 5,9
8,0 -> 0,8
9,4 -> 3,4
2,2 -> 2,1
7,0 -> 7,4
6,4 -> 2,0
0,9 -> 2,9
3,4 -> 1,4
0,0 -> 8,8
5,5 -> 8,2
"#
.trim();
assert_eq!(part1(&parse(input)?)?, 5);
Ok(())
}
#[test]
fn test_part2() -> Result<()> {
let input = r#"
0,9 -> 5,9
8,0 -> 0,8
9,4 -> 3,4
2,2 -> 2,1
7,0 -> 7,4
6,4 -> 2,0
0,9 -> 2,9
3,4 -> 1,4
0,0 -> 8,8
5,5 -> 8,2
"#
.trim();
assert_eq!(part2(&parse(input)?)?, 12);
Ok(())
}
}

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//! --- Day 6: Lanternfish ---
//! The sea floor is getting steeper. Maybe the sleigh keys got carried this way?
//!
//! A massive school of glowing lanternfish swims past. They must spawn quickly to reach such large numbers - maybe exponentially quickly? You should model their growth rate to be sure.
//!
//! Although you know nothing about this specific species of lanternfish, you make some guesses about their attributes. Surely, each lanternfish creates a new lanternfish once every 7 days.
//!
//! However, this process isn't necessarily synchronized between every lanternfish - one lanternfish might have 2 days left until it creates another lanternfish, while another might have 4. So, you can model each fish as a single number that represents the number of days until it creates a new lanternfish.
//!
//! Furthermore, you reason, a new lanternfish would surely need slightly longer before it's capable of producing more lanternfish: two more days for its first cycle.
//!
//! So, suppose you have a lanternfish with an internal timer value of 3:
//!
//! After one day, its internal timer would become 2.
//! After another day, its internal timer would become 1.
//! After another day, its internal timer would become 0.
//! After another day, its internal timer would reset to 6, and it would create a new lanternfish with an internal timer of 8.
//! After another day, the first lanternfish would have an internal timer of 5, and the second lanternfish would have an internal timer of 7.
//! A lanternfish that creates a new fish resets its timer to 6, not 7 (because 0 is included as a valid timer value). The new lanternfish starts with an internal timer of 8 and does not start counting down until the next day.
//!
//! Realizing what you're trying to do, the submarine automatically produces a list of the ages of several hundred nearby lanternfish (your puzzle input). For example, suppose you were given the following list:
//!
//! 3,4,3,1,2
//! This list means that the first fish has an internal timer of 3, the second fish has an internal timer of 4, and so on until the fifth fish, which has an internal timer of 2. Simulating these fish over several days would proceed as follows:
//!
//! Initial state: 3,4,3,1,2
//! After 1 day: 2,3,2,0,1
//! After 2 days: 1,2,1,6,0,8
//! After 3 days: 0,1,0,5,6,7,8
//! After 4 days: 6,0,6,4,5,6,7,8,8
//! After 5 days: 5,6,5,3,4,5,6,7,7,8
//! After 6 days: 4,5,4,2,3,4,5,6,6,7
//! After 7 days: 3,4,3,1,2,3,4,5,5,6
//! After 8 days: 2,3,2,0,1,2,3,4,4,5
//! After 9 days: 1,2,1,6,0,1,2,3,3,4,8
//! After 10 days: 0,1,0,5,6,0,1,2,2,3,7,8
//! After 11 days: 6,0,6,4,5,6,0,1,1,2,6,7,8,8,8
//! After 12 days: 5,6,5,3,4,5,6,0,0,1,5,6,7,7,7,8,8
//! After 13 days: 4,5,4,2,3,4,5,6,6,0,4,5,6,6,6,7,7,8,8
//! After 14 days: 3,4,3,1,2,3,4,5,5,6,3,4,5,5,5,6,6,7,7,8
//! After 15 days: 2,3,2,0,1,2,3,4,4,5,2,3,4,4,4,5,5,6,6,7
//! After 16 days: 1,2,1,6,0,1,2,3,3,4,1,2,3,3,3,4,4,5,5,6,8
//! After 17 days: 0,1,0,5,6,0,1,2,2,3,0,1,2,2,2,3,3,4,4,5,7,8
//! After 18 days: 6,0,6,4,5,6,0,1,1,2,6,0,1,1,1,2,2,3,3,4,6,7,8,8,8,8
//! Each day, a 0 becomes a 6 and adds a new 8 to the end of the list, while each other number decreases by 1 if it was present at the start of the day.
//!
//! In this example, after 18 days, there are a total of 26 fish. After 80 days, there would be a total of 5934.
//!
//! Find a way to simulate lanternfish. How many lanternfish would there be after 80 days?
//!
//! --- Part Two ---
//! Suppose the lanternfish live forever and have unlimited food and space. Would they take over the entire ocean?
//!
//! After 256 days in the example above, there would be a total of 26984457539 lanternfish!
use std::num::ParseIntError;
use anyhow::Result;
use aoc_runner_derive::aoc;
#[aoc(day6, part1)]
fn part1(input: &str) -> Result<usize> {
let mut fish = input
.split(',')
.map(|s| s.parse())
.collect::<Result<Vec<u64>, ParseIntError>>()?;
for _ in 0..80 {
let mut new_fish = Vec::new();
for f in fish.iter_mut() {
if *f == 0 {
new_fish.push(8);
*f = 7;
}
*f -= 1;
}
fish.extend(new_fish);
}
Ok(fish.len())
}
#[aoc(day6, part2)]
fn part2(input: &str) -> Result<usize> {
let mut counts = [0; 9];
input
.split(',')
.map(|s| s.parse())
.collect::<Result<Vec<usize>, ParseIntError>>()?
.into_iter()
.for_each(|n| counts[n] += 1);
for _ in 0..256 {
let mut tmp = [0; 9];
for (i, c) in counts.iter().enumerate() {
if i == 0 {
tmp[6] = *c;
tmp[8] = *c;
} else {
tmp[i - 1] += *c;
}
}
counts = tmp;
}
Ok(counts.iter().sum())
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_part1() -> Result<()> {
let input = r#"3,4,3,1,2"#.trim();
assert_eq!(part1(input)?, 5934);
Ok(())
}
#[test]
fn test_part2() -> Result<()> {
let input = r#"3,4,3,1,2"#.trim();
assert_eq!(part2(input)?, 26984457539);
Ok(())
}
}

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//! --- Day 7: The Treachery of Whales ---
//! A giant whale has decided your submarine is its next meal, and it's much faster than you are. There's nowhere to run!
//!
//! Suddenly, a swarm of crabs (each in its own tiny submarine - it's too deep for them otherwise) zooms in to rescue you! They seem to be preparing to blast a hole in the ocean floor; sensors indicate a massive underground cave system just beyond where they're aiming!
//!
//! The crab submarines all need to be aligned before they'll have enough power to blast a large enough hole for your submarine to get through. However, it doesn't look like they'll be aligned before the whale catches you! Maybe you can help?
//!
//! There's one major catch - crab submarines can only move horizontally.
//!
//! You quickly make a list of the horizontal position of each crab (your puzzle input). Crab submarines have limited fuel, so you need to find a way to make all of their horizontal positions match while requiring them to spend as little fuel as possible.
//!
//! For example, consider the following horizontal positions:
//!
//! 16,1,2,0,4,2,7,1,2,14
//! This means there's a crab with horizontal position 16, a crab with horizontal position 1, and so on.
//!
//! Each change of 1 step in horizontal position of a single crab costs 1 fuel. You could choose any horizontal position to align them all on, but the one that costs the least fuel is horizontal position 2:
//!
//! Move from 16 to 2: 14 fuel
//! Move from 1 to 2: 1 fuel
//! Move from 2 to 2: 0 fuel
//! Move from 0 to 2: 2 fuel
//! Move from 4 to 2: 2 fuel
//! Move from 2 to 2: 0 fuel
//! Move from 7 to 2: 5 fuel
//! Move from 1 to 2: 1 fuel
//! Move from 2 to 2: 0 fuel
//! Move from 14 to 2: 12 fuel
//! This costs a total of 37 fuel. This is the cheapest possible outcome; more expensive outcomes include aligning at position 1 (41 fuel), position 3 (39 fuel), or position 10 (71 fuel).
//!
//! Determine the horizontal position that the crabs can align to using the least fuel possible. How much fuel must they spend to align to that position?
//!
//! --- Part Two ---
//! The crabs don't seem interested in your proposed solution. Perhaps you misunderstand crab engineering?
//!
//! As it turns out, crab submarine engines don't burn fuel at a constant rate. Instead, each change of 1 step in horizontal position costs 1 more unit of fuel than the last: the first step costs 1, the second step costs 2, the third step costs 3, and so on.
//!
//! As each crab moves, moving further becomes more expensive. This changes the best horizontal position to align them all on; in the example above, this becomes 5:
//!
//! Move from 16 to 5: 66 fuel
//! Move from 1 to 5: 10 fuel
//! Move from 2 to 5: 6 fuel
//! Move from 0 to 5: 15 fuel
//! Move from 4 to 5: 1 fuel
//! Move from 2 to 5: 6 fuel
//! Move from 7 to 5: 3 fuel
//! Move from 1 to 5: 10 fuel
//! Move from 2 to 5: 6 fuel
//! Move from 14 to 5: 45 fuel
//! This costs a total of 168 fuel. This is the new cheapest possible outcome; the old alignment position (2) now costs 206 fuel instead.
//!
//! Determine the horizontal position that the crabs can align to using the least fuel possible so they can make you an escape route! How much fuel must they spend to align to that position?
use std::num::ParseIntError;
use anyhow::Result;
use aoc_runner_derive::{aoc, aoc_generator};
#[aoc_generator(day7)]
fn parse(input: &str) -> Result<Vec<u64>, ParseIntError> {
input
.split(',')
.map(|s| s.parse())
.collect::<Result<Vec<u64>, ParseIntError>>()
}
fn score1(nums: &[u64], mid: u64) -> u64 {
nums.iter()
.map(|n| ((*n as i64) - (mid as i64)).abs())
.sum::<i64>() as u64
}
#[aoc(day7, part1)]
fn part1(input: &[u64]) -> Result<u64> {
let mut input: Vec<_> = input.to_vec();
input.sort_unstable();
Ok(score1(&input, input[input.len() / 2]))
}
fn score2(nums: &[u64], mid: u64) -> u64 {
nums.iter()
.map(|n| {
let d = ((*n as i64) - (mid as i64)).abs();
(d * (d + 1)) / 2
})
.sum::<i64>() as u64
}
#[aoc(day7, part2)]
fn part2(input: &[u64]) -> Result<u64> {
let input: Vec<_> = input.to_vec();
let avg = input.iter().sum::<u64>() / input.len() as u64;
let s = if avg > 10 { avg - 10 } else { 0 };
let num = input.len() as u64;
let e = if avg + 10 < num { avg + 10 } else { num };
let answer = (s..e)
.map(|i| score2(&input, i))
.min()
.expect("couldn't find min");
if input.len() > 10 {
// The real data needs an answer lower than our first attempt.
assert!(answer < 94862126);
}
Ok(answer)
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_score1() -> Result<()> {
let nums: Vec<u64> = parse("16,1,2,0,4,2,7,1,2,14")?;
assert_eq!(score1(&nums, 1), 41);
assert_eq!(score1(&nums, 2), 37);
assert_eq!(score1(&nums, 3), 39);
assert_eq!(score1(&nums, 10), 71);
Ok(())
}
#[test]
fn test_part1() -> Result<()> {
let input = r#"16,1,2,0,4,2,7,1,2,14"#.trim();
assert_eq!(part1(&parse(input)?)?, 37);
Ok(())
}
#[test]
fn test_score2() -> Result<()> {
let nums: Vec<u64> = parse("16,1,2,0,4,2,7,1,2,14")?;
assert_eq!(score2(&nums, 5), 168);
assert_eq!(score2(&nums, 2), 206);
Ok(())
}
#[test]
fn test_part2() -> Result<()> {
let input = r#"16,1,2,0,4,2,7,1,2,14"#.trim();
assert_eq!(part2(&parse(input)?)?, 168);
Ok(())
}
}

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//! --- Day 8: Seven Segment Search ---
//! You barely reach the safety of the cave when the whale smashes into the cave mouth, collapsing it. Sensors indicate another exit to this cave at a much greater depth, so you have no choice but to press on.
//!
//! As your submarine slowly makes its way through the cave system, you notice that the four-digit seven-segment displays in your submarine are malfunctioning; they must have been damaged during the escape. You'll be in a lot of trouble without them, so you'd better figure out what's wrong.
//!
//! Each digit of a seven-segment display is rendered by turning on or off any of seven segments named a through g:
//!
//! 0: 1: 2: 3: 4:
//! aaaa .... aaaa aaaa ....
//! b c . c . c . c b c
//! b c . c . c . c b c
//! .... .... dddd dddd dddd
//! e f . f e . . f . f
//! e f . f e . . f . f
//! gggg .... gggg gggg ....
//!
//! 5: 6: 7: 8: 9:
//! aaaa aaaa aaaa aaaa aaaa
//! b . b . . c b c b c
//! b . b . . c b c b c
//! dddd dddd .... dddd dddd
//! . f e f . f e f . f
//! . f e f . f e f . f
//! gggg gggg .... gggg gggg
//! So, to render a 1, only segments c and f would be turned on; the rest would be off. To render a 7, only segments a, c, and f would be turned on.
//!
//! The problem is that the signals which control the segments have been mixed up on each display. The submarine is still trying to display numbers by producing output on signal wires a through g, but those wires are connected to segments randomly. Worse, the wire/segment connections are mixed up separately for each four-digit display! (All of the digits within a display use the same connections, though.)
//!
//! So, you might know that only signal wires b and g are turned on, but that doesn't mean segments b and g are turned on: the only digit that uses two segments is 1, so it must mean segments c and f are meant to be on. With just that information, you still can't tell which wire (b/g) goes to which segment (c/f). For that, you'll need to collect more information.
//!
//! For each display, you watch the changing signals for a while, make a note of all ten unique signal patterns you see, and then write down a single four digit output value (your puzzle input). Using the signal patterns, you should be able to work out which pattern corresponds to which digit.
//!
//! For example, here is what you might see in a single entry in your notes:
//!
//! acedgfb cdfbe gcdfa fbcad dab cefabd cdfgeb eafb cagedb ab |
//! cdfeb fcadb cdfeb cdbaf
//! (The entry is wrapped here to two lines so it fits; in your notes, it will all be on a single line.)
//!
//! Each entry consists of ten unique signal patterns, a | delimiter, and finally the four digit output value. Within an entry, the same wire/segment connections are used (but you don't know what the connections actually are). The unique signal patterns correspond to the ten different ways the submarine tries to render a digit using the current wire/segment connections. Because 7 is the only digit that uses three segments, dab in the above example means that to render a 7, signal lines d, a, and b are on. Because 4 is the only digit that uses four segments, eafb means that to render a 4, signal lines e, a, f, and b are on.
//!
//! Using this information, you should be able to work out which combination of signal wires corresponds to each of the ten digits. Then, you can decode the four digit output value. Unfortunately, in the above example, all of the digits in the output value (cdfeb fcadb cdfeb cdbaf) use five segments and are more difficult to deduce.
//!
//! For now, focus on the easy digits. Consider this larger example:
//!
//! be cfbegad cbdgef fgaecd cgeb fdcge agebfd fecdb fabcd edb |
//! fdgacbe cefdb cefbgd gcbe
//! edbfga begcd cbg gc gcadebf fbgde acbgfd abcde gfcbed gfec |
//! fcgedb cgb dgebacf gc
//! fgaebd cg bdaec gdafb agbcfd gdcbef bgcad gfac gcb cdgabef |
//! cg cg fdcagb cbg
//! fbegcd cbd adcefb dageb afcb bc aefdc ecdab fgdeca fcdbega |
//! efabcd cedba gadfec cb
//! aecbfdg fbg gf bafeg dbefa fcge gcbea fcaegb dgceab fcbdga |
//! gecf egdcabf bgf bfgea
//! fgeab ca afcebg bdacfeg cfaedg gcfdb baec bfadeg bafgc acf |
//! gebdcfa ecba ca fadegcb
//! dbcfg fgd bdegcaf fgec aegbdf ecdfab fbedc dacgb gdcebf gf |
//! cefg dcbef fcge gbcadfe
//! bdfegc cbegaf gecbf dfcage bdacg ed bedf ced adcbefg gebcd |
//! ed bcgafe cdgba cbgef
//! egadfb cdbfeg cegd fecab cgb gbdefca cg fgcdab egfdb bfceg |
//! gbdfcae bgc cg cgb
//! gcafb gcf dcaebfg ecagb gf abcdeg gaef cafbge fdbac fegbdc |
//! fgae cfgab fg bagce
//! Because the digits 1, 4, 7, and 8 each use a unique number of segments, you should be able to tell which combinations of signals correspond to those digits. Counting only digits in the output values (the part after | on each line), in the above example, there are 26 instances of digits that use a unique number of segments (highlighted above).
//!
//! In the output values, how many times do digits 1, 4, 7, or 8 appear?
//!
//! --- Part Two ---
//! Through a little deduction, you should now be able to determine the remaining digits. Consider again the first example above:
//!
//! acedgfb cdfbe gcdfa fbcad dab cefabd cdfgeb eafb cagedb ab |
//! cdfeb fcadb cdfeb cdbaf
//! After some careful analysis, the mapping between signal wires and segments only make sense in the following configuration:
//!
//! dddd
//! e a
//! e a
//! ffff
//! g b
//! g b
//! cccc
//! So, the unique signal patterns would correspond to the following digits:
//!
//! acedgfb: 8
//! cdfbe: 5
//! gcdfa: 2
//! fbcad: 3
//! dab: 7
//! cefabd: 9
//! cdfgeb: 6
//! eafb: 4
//! cagedb: 0
//! ab: 1
//! Then, the four digits of the output value can be decoded:
//!
//! cdfeb: 5
//! fcadb: 3
//! cdfeb: 5
//! cdbaf: 3
//! Therefore, the output value for this entry is 5353.
//!
//! Following this same process for each entry in the second, larger example above, the output value of each entry can be determined:
//!
//! fdgacbe cefdb cefbgd gcbe: 8394
//! fcgedb cgb dgebacf gc: 9781
//! cg cg fdcagb cbg: 1197
//! efabcd cedba gadfec cb: 9361
//! gecf egdcabf bgf bfgea: 4873
//! gebdcfa ecba ca fadegcb: 8418
//! cefg dcbef fcge gbcadfe: 4548
//! ed bcgafe cdgba cbgef: 1625
//! gbdfcae bgc cg cgb: 8717
//! fgae cfgab fg bagce: 4315
//! Adding all of the output values in this larger example produces 61229.
//!
//! For each entry, determine all of the wire/segment connections and decode the four-digit output values. What do you get if you add up all of the output values?
//!
use std::{
collections::HashMap,
convert::Infallible,
fmt::{Debug, Error, Formatter},
ops::BitAnd,
str::FromStr,
};
use anyhow::Result;
use aoc_runner_derive::aoc;
#[aoc(day8, part1, original)]
fn part1(input: &str) -> Result<usize> {
Ok(input
.lines()
.map(|l| {
l.split_once(" | ")
.unwrap()
.1
.split(' ')
// 1 | 7 | 4 | 8
.filter(|s| matches!(s.len(), 2 | 3 | 4 | 7))
.count()
})
.sum())
}
#[aoc(day8, part1, no_result)]
fn part1_no_result(input: &str) -> usize {
input
.lines()
.map(|l| {
l.split_once(" | ")
.unwrap()
.1
.split(' ')
// 1 | 7 | 4 | 8
.filter(|s| matches!(s.len(), 2 | 3 | 4 | 7))
.count()
})
.sum()
}
#[aoc(day8, part1, flat_map)]
fn part1_flat_map(input: &str) -> usize {
input
.lines()
.flat_map(|l| l.split_once(" | ").unwrap().1.split(' '))
// 1 | 7 | 4 | 8
.filter(|s| matches!(s.len(), 2 | 3 | 4 | 7))
.count()
}
#[aoc(day8, part1, glenng)]
fn part1_glenng(input: &str) -> usize {
input
.split('\n')
.flat_map(|line| {
let (_, output) = line.split_once(" | ").unwrap();
output.split(' ')
})
.filter(|s| [2usize, 3, 4, 7].contains(&s.len()))
.count()
}
#[derive(Copy, Clone, Eq, Hash, PartialEq)]
struct Segment(u8);
impl Debug for Segment {
fn fmt(&self, f: &mut Formatter<'_>) -> Result<(), Error> {
write!(f, "{:07b}", self.0)
}
}
impl FromStr for Segment {
type Err = Infallible;
fn from_str(s: &str) -> Result<Self, Self::Err> {
let mut bits = 0;
for b in s.as_bytes() {
bits |= 1 << (b - b'a');
}
Ok(Segment(bits))
}
}
impl BitAnd for Segment {
type Output = Self;
// rhs is the "right-hand side" of the expression `a & b`
fn bitand(self, rhs: Self) -> Self::Output {
Self(self.0 & rhs.0)
}
}
fn build_lookup(input: &str) -> Result<HashMap<Segment, u8>> {
let mut map: HashMap<u8, Segment> = HashMap::new();
let set: Vec<_> = input.split(' ').collect();
for digit in &set {
let s = digit.parse().unwrap();
match digit.len() {
// 1
2 => map.insert(1, s),
// 7
3 => map.insert(7, s),
// 4
4 => map.insert(4, s),
// 8
7 => map.insert(8, s),
_ => None,
};
}
let one = map[&1];
let four = map[&4];
// 0, 6 or 9 have 6 segments:
// 9 contains 1 and 4
// 0 intersects w/ 1 but not w/ 4
// 6 is the left overs.
set.iter().filter(|s| s.len() == 6).for_each(|d| {
let s: Segment = d.parse().unwrap();
if s & one == one && s & four == four {
map.insert(9, s);
} else if s & one == one {
map.insert(0, s);
} else {
map.insert(6, s);
}
});
let nine = map[&9];
// 2, 3 and 5 have 5 segments:
// 3 has overlap w/ 1
// 5 is a subset of 9
// 2 is the left overs.
set.iter().filter(|s| s.len() == 5).for_each(|d| {
let s: Segment = d.parse().unwrap();
if s & one == one {
map.insert(3, s);
} else if s & nine == s {
map.insert(5, s);
} else {
map.insert(2, s);
}
});
// Swap key/value.
Ok(map.into_iter().map(|(k, v)| (v, k)).collect())
}
fn output(line: &str) -> Result<u64> {
let (inp, out) = line.split_once(" | ").expect("line missing |");
let lookup = build_lookup(inp)?;
Ok(out
.split(' ')
.map(|s| {
let s: Segment = s.parse().unwrap();
lookup[&s]
})
.fold(0, |answer, d| 10 * answer + d as u64))
}
#[aoc(day8, part2)]
fn part2(input: &str) -> Result<u64> {
Ok(input
.lines()
.map(|l| output(l).expect("couldn't parse line"))
.sum())
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_part1() -> Result<()> {
let input = r#"
be cfbegad cbdgef fgaecd cgeb fdcge agebfd fecdb fabcd edb | fdgacbe cefdb cefbgd gcbe
edbfga begcd cbg gc gcadebf fbgde acbgfd abcde gfcbed gfec | fcgedb cgb dgebacf gc
fgaebd cg bdaec gdafb agbcfd gdcbef bgcad gfac gcb cdgabef | cg cg fdcagb cbg
fbegcd cbd adcefb dageb afcb bc aefdc ecdab fgdeca fcdbega | efabcd cedba gadfec cb
aecbfdg fbg gf bafeg dbefa fcge gcbea fcaegb dgceab fcbdga | gecf egdcabf bgf bfgea
fgeab ca afcebg bdacfeg cfaedg gcfdb baec bfadeg bafgc acf | gebdcfa ecba ca fadegcb
dbcfg fgd bdegcaf fgec aegbdf ecdfab fbedc dacgb gdcebf gf | cefg dcbef fcge gbcadfe
bdfegc cbegaf gecbf dfcage bdacg ed bedf ced adcbefg gebcd | ed bcgafe cdgba cbgef
egadfb cdbfeg cegd fecab cgb gbdefca cg fgcdab egfdb bfceg | gbdfcae bgc cg cgb
gcafb gcf dcaebfg ecagb gf abcdeg gaef cafbge fdbac fegbdc | fgae cfgab fg bagce
"#
.trim();
assert_eq!(part1(input)?, 26);
Ok(())
}
#[test]
fn test_part2() -> Result<()> {
let input = r#"
be cfbegad cbdgef fgaecd cgeb fdcge agebfd fecdb fabcd edb | fdgacbe cefdb cefbgd gcbe
edbfga begcd cbg gc gcadebf fbgde acbgfd abcde gfcbed gfec | fcgedb cgb dgebacf gc
fgaebd cg bdaec gdafb agbcfd gdcbef bgcad gfac gcb cdgabef | cg cg fdcagb cbg
fbegcd cbd adcefb dageb afcb bc aefdc ecdab fgdeca fcdbega | efabcd cedba gadfec cb
aecbfdg fbg gf bafeg dbefa fcge gcbea fcaegb dgceab fcbdga | gecf egdcabf bgf bfgea
fgeab ca afcebg bdacfeg cfaedg gcfdb baec bfadeg bafgc acf | gebdcfa ecba ca fadegcb
dbcfg fgd bdegcaf fgec aegbdf ecdfab fbedc dacgb gdcebf gf | cefg dcbef fcge gbcadfe
bdfegc cbegaf gecbf dfcage bdacg ed bedf ced adcbefg gebcd | ed bcgafe cdgba cbgef
egadfb cdbfeg cegd fecab cgb gbdefca cg fgcdab egfdb bfceg | gbdfcae bgc cg cgb
gcafb gcf dcaebfg ecagb gf abcdeg gaef cafbge fdbac fegbdc | fgae cfgab fg bagce
"#
.trim();
assert_eq!(part2(input)?, 61229);
Ok(())
}
}

244
2021/src/day9.rs Normal file
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@ -0,0 +1,244 @@
//! --- Day 9: Smoke Basin ---
//! These caves seem to be lava tubes. Parts are even still volcanically active; small hydrothermal vents release smoke into the caves that slowly settles like rain.
//!
//! If you can model how the smoke flows through the caves, you might be able to avoid it and be that much safer. The submarine generates a heightmap of the floor of the nearby caves for you (your puzzle input).
//!
//! Smoke flows to the lowest point of the area it's in. For example, consider the following heightmap:
//!
//! 2199943210
//! 3987894921
//! 9856789892
//! 8767896789
//! 9899965678
//! Each number corresponds to the height of a particular location, where 9 is the highest and 0 is the lowest a location can be.
//!
//! Your first goal is to find the low points - the locations that are lower than any of its adjacent locations. Most locations have four adjacent locations (up, down, left, and right); locations on the edge or corner of the map have three or two adjacent locations, respectively. (Diagonal locations do not count as adjacent.)
//!
//! In the above example, there are four low points, all highlighted: two are in the first row (a 1 and a 0), one is in the third row (a 5), and one is in the bottom row (also a 5). All other locations on the heightmap have some lower adjacent location, and so are not low points.
//!
//! The risk level of a low point is 1 plus its height. In the above example, the risk levels of the low points are 2, 1, 6, and 6. The sum of the risk levels of all low points in the heightmap is therefore 15.
//!
//! Find all of the low points on your heightmap. What is the sum of the risk levels of all low points on your heightmap?
//!
//! --- Part Two ---
//! Next, you need to find the largest basins so you know what areas are most important to avoid.
//!
//! A basin is all locations that eventually flow downward to a single low point. Therefore, every low point has a basin, although some basins are very small. Locations of height 9 do not count as being in any basin, and all other locations will always be part of exactly one basin.
//!
//! The size of a basin is the number of locations within the basin, including the low point. The example above has four basins.
//!
//! The top-left basin, size 3:
//!
//! 2199943210
//! 3987894921
//! 9856789892
//! 8767896789
//! 9899965678
//! The top-right basin, size 9:
//!
//! 2199943210
//! 3987894921
//! 9856789892
//! 8767896789
//! 9899965678
//! The middle basin, size 14:
//!
//! 2199943210
//! 3987894921
//! 9856789892
//! 8767896789
//! 9899965678
//! The bottom-right basin, size 9:
//!
//! 2199943210
//! 3987894921
//! 9856789892
//! 8767896789
//! 9899965678
//! Find the three largest basins and multiply their sizes together. In the above example, this is 9 * 14 * 9 = 1134.
//!
//! What do you get if you multiply together the sizes of the three largest basins?
use std::{
collections::{HashSet, VecDeque},
convert::Infallible,
fmt::{Debug, Error, Formatter},
ops::Index,
str::FromStr,
};
use anyhow::Result;
use aoc_runner_derive::{aoc, aoc_generator};
struct HeightMap {
width: usize,
height: usize,
pixels: Vec<u8>,
}
impl Debug for HeightMap {
fn fmt(&self, f: &mut Formatter<'_>) -> Result<(), Error> {
for y in 0..self.height {
for x in 0..self.width {
write!(f, "{}", self[(x, y)])?;
}
writeln!(f)?;
}
Ok(())
}
}
impl HeightMap {
fn low_points(&self) -> Vec<u8> {
let mut pts = Vec::new();
for y in 0..self.height {
for x in 0..self.width {
let c = self[(x, y)];
if (x == 0 || c < self[(x - 1, y)])
&& (y == 0 || c < self[(x, y - 1)])
&& (x == self.width - 1 || c < self[(x + 1, y)])
&& (y == self.height - 1 || c < self[(x, y + 1)])
{
pts.push(c);
}
}
}
pts
}
// counts number of neighbors not 9.
fn flood_fill(&self, initial: (isize, isize), coords: &mut HashSet<(isize, isize)>) {
// This is an iterative implementation of what would be nice to do recursively. Rust
// stack overflows on the final dataset if written recursively.
let mut q = VecDeque::new();
q.push_back(initial);
while let Some((x, y)) = q.pop_front() {
// Can be negative or outside the width,height, Indeximpl will return 9.
let c = self[(x, y)] as usize;
if c == 9 {
// Don't count 9's that are neighbors and don't explore their neighbors.
continue;
}
if coords.insert((x, y)) {
q.push_back((x - 1, y));
q.push_back((x, y - 1));
q.push_back((x + 1, y));
q.push_back((x, y + 1));
}
}
}
fn basins(&self) -> Vec<usize> {
let mut bs = Vec::new();
for y in 0..self.height {
for x in 0..self.width {
let c = self[(x, y)];
if (x == 0 || c < self[(x - 1, y)])
&& (y == 0 || c < self[(x, y - 1)])
&& (x == self.width - 1 || c < self[(x + 1, y)])
&& (y == self.height - 1 || c < self[(x, y + 1)])
{
let mut coords = HashSet::new();
self.flood_fill((x as isize, y as isize), &mut coords);
bs.push(coords.len());
}
}
}
bs
}
}
// Index implementation that panics if x or y are greater than width or height.
impl Index<(usize, usize)> for HeightMap {
type Output = u8;
fn index(&self, (x, y): (usize, usize)) -> &Self::Output {
&self.pixels[x + y * self.width]
}
}
// Index implementation that returns 9 for out of range requests.
impl Index<(isize, isize)> for HeightMap {
type Output = u8;
fn index(&self, (x, y): (isize, isize)) -> &Self::Output {
if x < 0 || y < 0 || x > self.width as isize - 1 || y > self.height as isize - 1 {
return &9;
}
&self.pixels[x as usize + y as usize * self.width]
}
}
impl FromStr for HeightMap {
type Err = Infallible;
fn from_str(s: &str) -> Result<Self, Self::Err> {
let rows: Vec<_> = s.lines().collect();
let width = rows[0].len();
let height = rows.len();
let pixels = rows
.iter()
.flat_map(|row| row.as_bytes().iter().map(|b| b - b'0'))
.collect();
Ok(HeightMap {
width,
height,
pixels,
})
}
}
#[aoc_generator(day9)]
fn parse(input: &str) -> Result<HeightMap> {
Ok(input.parse()?)
}
#[aoc(day9, part1)]
fn part1(input: &HeightMap) -> Result<u64> {
Ok(input.low_points().iter().map(|b| (*b + 1) as u64).sum())
}
#[aoc(day9, part2)]
fn part2(hm: &HeightMap) -> Result<usize> {
let mut sizes = hm.basins();
sizes.sort_unstable();
Ok(sizes[sizes.len() - 3..].iter().product())
}
#[cfg(test)]
mod tests {
use super::*;
#[test]
fn test_part1() -> Result<()> {
let input = r#"
2199943210
3987894921
9856789892
8767896789
9899965678
"#
.trim();
let hm = parse(input)?;
assert_eq!(hm.low_points(), vec![1, 0, 5, 5]);
assert_eq!(part1(&hm)?, 15);
Ok(())
}
#[test]
fn test_part2() -> Result<()> {
let input = r#"
2199943210
3987894921
9856789892
8767896789
9899965678
"#
.trim();
let hm = parse(input)?;
assert_eq!(hm.basins(), vec![3, 9, 14, 9]);
assert_eq!(part2(&hm)?, 1134);
Ok(())
}
}

37
2021/src/lib.rs Normal file
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pub mod day1;
pub mod day10;
pub mod day11;
pub mod day12;
pub mod day13;
//pub mod day14;
pub mod day15;
pub mod day16;
pub mod day17;
//pub mod day18;
pub mod day19;
pub mod day2;
pub mod day20;
pub mod day21;
pub mod day22;
//pub mod day23;
pub mod day3;
pub mod day4;
pub mod day5;
pub mod day6;
pub mod day7;
pub mod day8;
pub mod day9;
use aoc_runner_derive::aoc_lib;
#[macro_export]
macro_rules! debug_print{
($($arg:tt)*) => (#[cfg(debug_assertions)] print!($($arg)*));
}
#[macro_export]
macro_rules! debug_println {
($($arg:tt)*) => (#[cfg(debug_assertions)] println!($($arg)*));
}
aoc_lib! { year = 2021 }

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