Rust Day 5 Part 2

This commit is contained in:
Tobias Berger 2023-12-05 20:55:19 +01:00
parent 42a9543cd5
commit 0ec05b7b34
Signed by: toby
GPG key ID: 2D05EFAB764D6A88
2 changed files with 265 additions and 196 deletions

View file

@ -14,9 +14,12 @@ impl FromStr for Mapping {
.map(|num| num.parse::<i64>()) .map(|num| num.parse::<i64>())
.collect::<Result<Vec<_>, _>>()?; .collect::<Result<Vec<_>, _>>()?;
assert_eq!(range.len(), 3); assert_eq!(range.len(), 3);
let destination_start = range[0];
let source_start = range[1];
let length = range[2];
Ok(Mapping { Ok(Mapping {
destination_range: range[0]..=range[0] + range[2], destination_range: destination_start..=destination_start + length - 1,
source_range: range[1]..=range[1] + range[2], source_range: source_start..=source_start + length - 1,
}) })
} }
} }

View file

@ -21,29 +21,39 @@ enum Overlap {
// MAPPING 456 -> 789 (+3) // MAPPING 456 -> 789 (+3)
// RANGE 789 // < < < < // 789 // X // RANGE 789 // < < < < // 789 // X
// RANGE 123 // > > > > // 123 // X // RANGE 123 // > > > > // 123 // X
None(RangeInclusive<i64>), None {
rest: RangeInclusive<i64>,
},
// MAPPING 345 -> 789 (+4) // MAPPING 345 -> 789 (+4)
// RANGE 234 // > > < > // 2 78 // X // RANGE 234 // > > < > // 2 78 // X
// RANGE 567 // < < < = // 9 67 // X // RANGE 567 // < < < = // 9 67 // X
// RANGE 456 // < < < > // 89 6 // X // RANGE 456 // < < < > // 89 6 // X
// RANGE 123 // > > = > // 12 7 // X // RANGE 123 // > > = > // 12 7 // X
// RANGE 1234 // > = < > // 12 78 // // RANGE 1234 // > = < > // 12 78 // X
Simple(RangeInclusive<i64>, RangeInclusive<i64>), // RANGE 3456 // = < < > // 789 X //
Simple {
contained: RangeInclusive<i64>,
rest: RangeInclusive<i64>,
},
// MAPPING 1234 -> 5678 (+4) // MAPPING 1234 -> 5678 (+4)
// RANGE 234 // < = < > // 678 // X // RANGE 234 // < = < > // 678 // X
// RANGE 123 // = > = > // 567 // X // RANGE 123 // = > < > // 567 // X
Contained(RangeInclusive<i64>), Contained {
contained: RangeInclusive<i64>,
},
// MAPPING 12345 -> 56789 (+4) // MAPPING 12345 -> 56789 (+4)
// RANGE 234 // < > < > // 789 // X // RANGE 234 // < > < > // 789 // X
// RANGE 12345 // = = = = // 56789 // X // RANGE 12345 // = = < > // 56789 // X
Complete(RangeInclusive<i64>), Complete {
contained: RangeInclusive<i64>,
},
// MAPPING 234 -> 678 (+4) // MAPPING 234 -> 678 (+4)
// RANGE 12345 // > < < > // 1 678 5 // X // RANGE 12345 // > < < > // 1 678 5 // X
Overreaching( Overreaching {
RangeInclusive<i64>, left: RangeInclusive<i64>,
RangeInclusive<i64>, contained: RangeInclusive<i64>,
RangeInclusive<i64>, right: RangeInclusive<i64>,
), },
} }
impl Mapping { impl Mapping {
@ -57,85 +67,104 @@ impl Mapping {
i64::cmp(self.source_range.start(), range.end()), i64::cmp(self.source_range.start(), range.end()),
i64::cmp(self.source_range.end(), range.start()), i64::cmp(self.source_range.end(), range.start()),
) { ) {
(Ordering::Equal, Ordering::Less, Ordering::Less, Ordering::Greater) => {
Overlap::Simple {
contained: self.destination_range.clone(),
rest: self.source_range.end() + 1..=*range.end(),
}
}
(Ordering::Greater, Ordering::Equal, Ordering::Less, Ordering::Greater) => { (Ordering::Greater, Ordering::Equal, Ordering::Less, Ordering::Greater) => {
Overlap::Simple( Overlap::Simple {
*range.start()..=self.source_range.start() - 1, contained: *self.destination_range.start()..=range.end() + self.diff(),
*self.destination_range.start()..=range.end() + self.diff(), rest: *range.start()..=self.source_range.start() - 1,
) }
} }
(Ordering::Greater, Ordering::Less, Ordering::Less, Ordering::Greater) => { (Ordering::Greater, Ordering::Less, Ordering::Less, Ordering::Greater) => {
Overlap::Overreaching( Overlap::Overreaching {
*range.start()..=self.source_range.start() - 1, left: *range.start()..=self.source_range.start() - 1,
self.destination_range.clone(), contained: self.destination_range.clone(),
self.source_range.end() + 1..=*range.end(), right: self.source_range.end() + 1..=*range.end(),
) }
} }
(Ordering::Less, Ordering::Greater, Ordering::Less, Ordering::Greater) => { (Ordering::Less, Ordering::Greater, Ordering::Less, Ordering::Greater) => {
Overlap::Complete(range.start() + self.diff()..=range.end() + self.diff()) Overlap::Complete {
contained: range.start() + self.diff()..=range.end() + self.diff(),
}
}
(Ordering::Equal, Ordering::Equal, Ordering::Less, Ordering::Greater) => {
Overlap::Complete {
contained: self.destination_range.clone(),
} }
(Ordering::Equal, Ordering::Equal, Ordering::Equal, Ordering::Equal) => {
Overlap::Complete(self.destination_range.clone())
} }
(Ordering::Greater, Ordering::Greater, Ordering::Greater, Ordering::Greater) (Ordering::Greater, Ordering::Greater, Ordering::Greater, Ordering::Greater)
| (Ordering::Less, Ordering::Less, Ordering::Less, Ordering::Less) => { | (Ordering::Less, Ordering::Less, Ordering::Less, Ordering::Less) => Overlap::None {
Overlap::None(range.clone()) rest: range.clone(),
} },
(Ordering::Less, Ordering::Equal, Ordering::Less, Ordering::Greater) (Ordering::Less, Ordering::Equal, Ordering::Less, Ordering::Greater)
| (Ordering::Equal, Ordering::Greater, Ordering::Equal, Ordering::Greater) => { | (Ordering::Equal, Ordering::Greater, Ordering::Less, Ordering::Greater) => {
Overlap::Contained(range.start() + self.diff()..=range.end() + self.diff()) Overlap::Contained {
contained: range.start() + self.diff()..=range.end() + self.diff(),
}
} }
(Ordering::Greater, Ordering::Greater, Ordering::Less, Ordering::Greater) => { (Ordering::Greater, Ordering::Greater, Ordering::Less, Ordering::Greater) => {
Overlap::Simple( Overlap::Simple {
*range.start()..=self.source_range.start() - 1, rest: *range.start()..=self.source_range.start() - 1,
*self.destination_range.start()..=range.end() + self.diff(), contained: *self.destination_range.start()..=range.end() + self.diff(),
) }
} }
(Ordering::Less, Ordering::Less, Ordering::Less, Ordering::Greater) (Ordering::Less, Ordering::Less, Ordering::Less, Ordering::Greater)
| (Ordering::Less, Ordering::Less, Ordering::Less, Ordering::Equal) => Overlap::Simple( | (Ordering::Less, Ordering::Less, Ordering::Less, Ordering::Equal) => {
*range.start() + self.diff()..=*self.destination_range.end(), Overlap::Simple {
self.source_range.end() + 1..=*range.end(), contained: *range.start() + self.diff()..=*self.destination_range.end(),
), rest: self.source_range.end() + 1..=*range.end(),
}
}
(Ordering::Greater, Ordering::Greater, Ordering::Equal, Ordering::Greater) => { (Ordering::Greater, Ordering::Greater, Ordering::Equal, Ordering::Greater) => {
Overlap::Simple( Overlap::Simple {
*range.start()..=self.source_range.start() - 1, rest: *range.start()..=self.source_range.start() - 1,
*self.destination_range.start()..=range.end() + self.diff(), contained: *self.destination_range.start()..=range.end() + self.diff(),
) }
} }
(a, b, c, d) => unreachable!("{:?} {:?} {:?} {:?}", a, b, c, d), (a, b, c, d) => unreachable!("{:?} {:?} {:?} {:?}", a, b, c, d),
}; };
match &result { match &result {
Overlap::Contained(value) => assert_eq!( Overlap::Contained { contained } => assert_eq!(
range.end() - range.start() + 1, range.end() - range.start() + 1,
value.end() - value.start() + 1 contained.end() - contained.start() + 1
), ),
Overlap::Complete(value) => assert_eq!( Overlap::Complete { contained } => assert_eq!(
range.end() - range.start() + 1, range.end() - range.start() + 1,
value.end() - value.start() + 1 contained.end() - contained.start() + 1
), ),
Overlap::None(value) => assert_eq!( Overlap::None { rest } => assert_eq!(
range.end() - range.start() + 1, range.end() - range.start() + 1,
value.end() - value.start() + 1 rest.end() - rest.start() + 1
), ),
Overlap::Simple(value1, value2) => assert_eq!( Overlap::Simple { rest, contained } => assert_eq!(
range.end() - range.start() + 1, range.end() - range.start() + 1,
(value1.end() - value1.start() + 1) + (value2.end() - value2.start() + 1) (rest.end() - rest.start() + 1) + (contained.end() - contained.start() + 1),
"{:?} ; {} ; {:?} ; {:?}",
range,
self,
contained,
rest,
), ),
Overlap::Overreaching(value1, value2, value3) => assert_eq!( Overlap::Overreaching {
left,
contained,
right,
} => assert_eq!(
range.end() - range.start() + 1, range.end() - range.start() + 1,
(value1.end() - value1.start() + 1) (left.end() - left.start() + 1)
+ (value2.end() - value2.start() + 1) + (contained.end() - contained.start() + 1)
+ (value3.end() - value3.start() + 1) + (right.end() - right.start() + 1)
), ),
} }
result result
} }
fn source_overlaps(&self, range: &RangeInclusive<i64>) -> bool {
self.source_range.end() >= range.start() && self.source_range.start() <= range.end()
}
} }
impl FromStr for Mapping { impl FromStr for Mapping {
@ -150,8 +179,8 @@ impl FromStr for Mapping {
let source_start = range[1]; let source_start = range[1];
let length = range[2]; let length = range[2];
Ok(Mapping { Ok(Mapping {
destination_range: destination_start..=destination_start + length, destination_range: destination_start..=destination_start + length - 1,
source_range: source_start..=source_start + length, source_range: source_start..=source_start + length - 1,
}) })
} }
} }
@ -160,7 +189,7 @@ pub(crate) fn part_2(input: &'static str) -> Result<i64, <Mapping as FromStr>::E
let mut lines = input.lines(); let mut lines = input.lines();
let lines = lines.by_ref(); let lines = lines.by_ref();
let seed_values = lines let mut seed_values = lines
.take_while(|line| !line.is_empty()) .take_while(|line| !line.is_empty())
.map(|line| line.split(' ').skip(1).map(|num| num.parse::<i64>())) .map(|line| line.split(' ').skip(1).map(|num| num.parse::<i64>()))
.flatten() .flatten()
@ -169,240 +198,278 @@ pub(crate) fn part_2(input: &'static str) -> Result<i64, <Mapping as FromStr>::E
.map(|v| [v[0], v[1]]) .map(|v| [v[0], v[1]])
.map(|[start, length]| start..=(start + length - 1)) .map(|[start, length]| start..=(start + length - 1))
.collect::<Vec<_>>(); .collect::<Vec<_>>();
// println!("seed {:?}", values); println!("seed {:?}", seed_values);
let seed_to_soil = lines let seed_to_soil = lines
.take_while(|line| !line.is_empty()) .take_while(|line| !line.is_empty())
.skip(1) .skip(1)
.map(Mapping::from_str) .map(Mapping::from_str)
.collect::<Result<Vec<_>, _>>()?; .collect::<Result<Vec<_>, _>>()?;
// println!(" {:?}", seed_to_soil); println!(" {:?}", seed_to_soil);
let mut soil_values = vec![]; let mut soil_values = vec![];
for seed in seed_values.iter() { for mapping in &seed_to_soil {
if let Some(mapping) = seed_to_soil let mut new_seeds = vec![];
.iter() for seed in &seed_values {
.find(|mapping| mapping.source_overlaps(seed))
{
let overlap = mapping.apply(seed); let overlap = mapping.apply(seed);
match overlap {
Overlap::None(_) => unreachable!(),
Overlap::Contained(range) | Overlap::Complete(range) => soil_values.push(range),
Overlap::Simple(left, right) => {
soil_values.push(left);
soil_values.push(right);
}
Overlap::Overreaching(left, right, rest) => {
soil_values.push(left);
soil_values.push(right);
soil_values.push(rest);
}
}
} else {
soil_values.push(seed.clone());
}
}
// println!("soil {:?}", soil_values); match overlap {
Overlap::None { rest } => {
new_seeds.push(rest);
}
Overlap::Simple { contained, rest } => {
soil_values.push(contained);
new_seeds.push(rest);
}
Overlap::Contained { contained } => soil_values.push(contained),
Overlap::Complete { contained } => soil_values.push(contained),
Overlap::Overreaching {
left,
contained,
right,
} => {
soil_values.push(contained);
new_seeds.push(left);
new_seeds.push(right);
}
}
}
seed_values = new_seeds;
}
soil_values.extend_from_slice(&seed_values);
println!("soil {:?}", soil_values);
let soil_to_fertilizer = lines let soil_to_fertilizer = lines
.take_while(|line| !line.is_empty()) .take_while(|line| !line.is_empty())
.skip(1) .skip(1)
.map(Mapping::from_str) .map(Mapping::from_str)
.collect::<Result<Vec<_>, _>>()?; .collect::<Result<Vec<_>, _>>()?;
// println!(" {:?}", soil_to_fertilizer); println!(" {:?}", soil_to_fertilizer);
let mut fertilizer_values = vec![]; let mut fertilizer_values = vec![];
for soil in soil_values.iter() { for mapping in &soil_to_fertilizer {
if let Some(mapping) = soil_to_fertilizer let mut new_soils = vec![];
.iter() for soil in &soil_values {
.find(|mapping| mapping.source_overlaps(soil))
{
let overlap = mapping.apply(soil); let overlap = mapping.apply(soil);
match overlap {
Overlap::None(_) => unreachable!(),
Overlap::Contained(range) | Overlap::Complete(range) => {
fertilizer_values.push(range)
}
Overlap::Simple(left, right) => {
fertilizer_values.push(left);
fertilizer_values.push(right);
}
Overlap::Overreaching(left, right, rest) => {
fertilizer_values.push(left);
fertilizer_values.push(right);
fertilizer_values.push(rest);
}
}
} else {
fertilizer_values.push(soil.clone());
}
}
// println!("fert {:?}", fertilizer_values); match overlap {
Overlap::None { rest } => {
new_soils.push(rest);
}
Overlap::Simple { contained, rest } => {
fertilizer_values.push(contained);
new_soils.push(rest);
}
Overlap::Contained { contained } => fertilizer_values.push(contained),
Overlap::Complete { contained } => fertilizer_values.push(contained),
Overlap::Overreaching {
left,
contained,
right,
} => {
fertilizer_values.push(contained);
new_soils.push(left);
new_soils.push(right);
}
}
}
soil_values = new_soils;
}
fertilizer_values.extend_from_slice(&soil_values);
println!("fert {:?}", fertilizer_values);
let fertilizer_to_water = lines let fertilizer_to_water = lines
.take_while(|line| !line.is_empty()) .take_while(|line| !line.is_empty())
.skip(1) .skip(1)
.map(Mapping::from_str) .map(Mapping::from_str)
.collect::<Result<Vec<_>, _>>()?; .collect::<Result<Vec<_>, _>>()?;
// println!(" {:?}", fertilizer_to_water); println!(" {:?}", fertilizer_to_water);
let mut water_values = vec![]; let mut water_values = vec![];
for fertilizer in fertilizer_values.iter() { for mapping in &fertilizer_to_water {
if let Some(mapping) = fertilizer_to_water let mut new_fertilizers = vec![];
.iter() for fertilizer in &fertilizer_values {
.find(|mapping| mapping.source_overlaps(fertilizer))
{
let overlap = mapping.apply(fertilizer); let overlap = mapping.apply(fertilizer);
match overlap { match overlap {
Overlap::None(_) => unreachable!(), Overlap::None { rest } => {
Overlap::Contained(range) | Overlap::Complete(range) => water_values.push(range), new_fertilizers.push(rest);
Overlap::Simple(left, right) => {
water_values.push(left);
water_values.push(right);
} }
Overlap::Overreaching(left, right, rest) => { Overlap::Simple { contained, rest } => {
water_values.push(left); water_values.push(contained);
water_values.push(right); new_fertilizers.push(rest);
water_values.push(rest); }
Overlap::Contained { contained } => water_values.push(contained),
Overlap::Complete { contained } => water_values.push(contained),
Overlap::Overreaching {
left,
contained,
right,
} => {
water_values.push(contained);
new_fertilizers.push(left);
new_fertilizers.push(right);
} }
} }
} else {
water_values.push(fertilizer.clone());
} }
fertilizer_values = new_fertilizers;
} }
// println!("watr {:?}", water_values); water_values.extend_from_slice(&fertilizer_values);
println!("watr {:?}", water_values);
let water_to_light = lines let water_to_light = lines
.take_while(|line| !line.is_empty()) .take_while(|line| !line.is_empty())
.skip(1) .skip(1)
.map(Mapping::from_str) .map(Mapping::from_str)
.collect::<Result<Vec<_>, _>>()?; .collect::<Result<Vec<_>, _>>()?;
// println!(" {:?}", water_to_light); println!(" {:?}", water_to_light);
let mut light_values = vec![]; let mut light_values = vec![];
for water in water_values.iter() { for mapping in &water_to_light {
if let Some(mapping) = water_to_light let mut new_waters = vec![];
.iter() for fertilizer in &water_values {
.find(|mapping| mapping.source_overlaps(water)) let overlap = mapping.apply(fertilizer);
{
if *water.start() == 81 && *water.end() == 94 {
// println!("DEBUG");
}
let overlap = mapping.apply(water);
match overlap { match overlap {
Overlap::None(_) => unreachable!(), Overlap::None { rest } => {
Overlap::Contained(range) | Overlap::Complete(range) => light_values.push(range), new_waters.push(rest);
Overlap::Simple(left, right) => {
light_values.push(left);
light_values.push(right);
} }
Overlap::Overreaching(left, right, rest) => { Overlap::Simple { contained, rest } => {
light_values.push(left); light_values.push(contained);
light_values.push(right); new_waters.push(rest);
light_values.push(rest); }
Overlap::Contained { contained } => light_values.push(contained),
Overlap::Complete { contained } => light_values.push(contained),
Overlap::Overreaching {
left,
contained,
right,
} => {
light_values.push(contained);
new_waters.push(left);
new_waters.push(right);
} }
} }
} else {
light_values.push(water.clone());
} }
water_values = new_waters;
} }
// println!("lite {:?}", light_values); light_values.extend_from_slice(&water_values);
println!("lite {:?}", light_values);
let light_to_temperature = lines let light_to_temperature = lines
.take_while(|line| !line.is_empty()) .take_while(|line| !line.is_empty())
.skip(1) .skip(1)
.map(Mapping::from_str) .map(Mapping::from_str)
.collect::<Result<Vec<_>, _>>()?; .collect::<Result<Vec<_>, _>>()?;
// println!(" {:?}", light_to_temperature); println!(" {:?}", light_to_temperature);
let mut temperature_values = vec![]; let mut temperature_values = vec![];
for light in light_values.iter() { for mapping in &light_to_temperature {
if let Some(mapping) = light_to_temperature let mut new_lights = vec![];
.iter() for light in &light_values {
.find(|mapping| mapping.source_overlaps(light))
{
let overlap = mapping.apply(light); let overlap = mapping.apply(light);
match overlap {
Overlap::None(_) => unreachable!(),
Overlap::Contained(range) | Overlap::Complete(range) => {
temperature_values.push(range)
}
Overlap::Simple(left, right) => {
temperature_values.push(left);
temperature_values.push(right);
}
Overlap::Overreaching(left, right, rest) => {
temperature_values.push(left);
temperature_values.push(right);
temperature_values.push(rest);
}
}
} else {
temperature_values.push(light.clone());
}
}
// println!("temp {:?}", temperature_values); match overlap {
Overlap::None { rest } => {
new_lights.push(rest);
}
Overlap::Simple { contained, rest } => {
temperature_values.push(contained);
new_lights.push(rest);
}
Overlap::Contained { contained } => temperature_values.push(contained),
Overlap::Complete { contained } => temperature_values.push(contained),
Overlap::Overreaching {
left,
contained,
right,
} => {
temperature_values.push(contained);
new_lights.push(left);
new_lights.push(right);
}
}
}
light_values = new_lights;
}
temperature_values.extend_from_slice(&light_values);
println!("temp {:?}", temperature_values);
let temperature_to_humidity = lines let temperature_to_humidity = lines
.take_while(|line| !line.is_empty()) .take_while(|line| !line.is_empty())
.skip(1) .skip(1)
.map(Mapping::from_str) .map(Mapping::from_str)
.collect::<Result<Vec<_>, _>>()?; .collect::<Result<Vec<_>, _>>()?;
// println!(" {:?}", temperature_to_humidity); println!(" {:?}", temperature_to_humidity);
let mut humidity_values = vec![]; let mut humidity_values = vec![];
for temperature in temperature_values.iter() { for mapping in &temperature_to_humidity {
if let Some(mapping) = temperature_to_humidity let mut new_temperatures = vec![];
.iter() for temperature in &temperature_values {
.find(|mapping| mapping.source_overlaps(temperature))
{
let overlap = mapping.apply(temperature); let overlap = mapping.apply(temperature);
match overlap {
Overlap::None(_) => unreachable!(),
Overlap::Contained(range) | Overlap::Complete(range) => humidity_values.push(range),
Overlap::Simple(left, right) => {
humidity_values.push(left);
humidity_values.push(right);
}
Overlap::Overreaching(left, right, rest) => {
humidity_values.push(left);
humidity_values.push(right);
humidity_values.push(rest);
}
}
} else {
humidity_values.push(temperature.clone());
}
}
// println!("hmdt {:?}", humidity_values); match overlap {
Overlap::None { rest } => {
new_temperatures.push(rest);
}
Overlap::Simple { contained, rest } => {
humidity_values.push(contained);
new_temperatures.push(rest);
}
Overlap::Contained { contained } => humidity_values.push(contained),
Overlap::Complete { contained } => humidity_values.push(contained),
Overlap::Overreaching {
left,
contained,
right,
} => {
humidity_values.push(contained);
new_temperatures.push(left);
new_temperatures.push(right);
}
}
}
temperature_values = new_temperatures;
}
humidity_values.extend_from_slice(&light_values);
println!("hmdt {:?}", humidity_values);
let humidity_to_location = lines let humidity_to_location = lines
.take_while(|line| !line.is_empty()) .take_while(|line| !line.is_empty())
.skip(1) .skip(1)
.map(Mapping::from_str) .map(Mapping::from_str)
.collect::<Result<Vec<_>, _>>()?; .collect::<Result<Vec<_>, _>>()?;
// println!(" {:?}", humidity_to_location); println!(" {:?}", humidity_to_location);
let mut location_values = vec![]; let mut location_values = vec![];
for humidity in humidity_values.iter() { for mapping in &humidity_to_location {
if let Some(mapping) = humidity_to_location let mut new_humidities = vec![];
.iter() for humidity in &humidity_values {
.find(|mapping| mapping.source_overlaps(humidity))
{
let overlap = mapping.apply(humidity); let overlap = mapping.apply(humidity);
match overlap { match overlap {
Overlap::None(_) => unreachable!(), Overlap::None { rest } => {
Overlap::Contained(range) | Overlap::Complete(range) => location_values.push(range), new_humidities.push(rest);
Overlap::Simple(left, right) => {
location_values.push(left);
location_values.push(right);
} }
Overlap::Overreaching(left, right, rest) => { Overlap::Simple { contained, rest } => {
location_values.push(left); location_values.push(contained);
location_values.push(right); new_humidities.push(rest);
location_values.push(rest); }
Overlap::Contained { contained } => location_values.push(contained),
Overlap::Complete { contained } => location_values.push(contained),
Overlap::Overreaching {
left,
contained,
right,
} => {
location_values.push(contained);
new_humidities.push(left);
new_humidities.push(right);
} }
} }
} else {
location_values.push(humidity.clone());
} }
humidity_values = new_humidities;
} }
location_values.extend_from_slice(&humidity_values);
println!("loct {:?}", location_values);
Ok(location_values Ok(location_values
.iter() .iter()
@ -426,7 +493,6 @@ mod tests {
fn test_with_solution() { fn test_with_solution() {
let solution = super::part_2(crate::INPUT).expect("Should run on real input"); let solution = super::part_2(crate::INPUT).expect("Should run on real input");
assert!(solution < 54927065); assert_eq!(solution, 15880236);
assert_eq!(solution, 0);
} }
} }