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5 Commits
45d899b36b
...
1c688d1b96
Author | SHA1 | Date |
---|---|---|
Luna Lailatova | 1c688d1b96 | 2 years ago |
Luna Lailatova | 8a3b68304b | 2 years ago |
Luna Lailatova | 7ef7fbe673 | 2 years ago |
Luna Lailatova | 501f846a63 | 2 years ago |
Luna Lailatova | fcf72efd51 | 2 years ago |
13 changed files with 3221 additions and 7 deletions
@ -0,0 +1,83 @@
@@ -0,0 +1,83 @@
|
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with open('input21.txt','r') as f: |
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inp = f.read().splitlines(keepends=False) |
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_monkeys = {} |
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for line in inp: |
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monkey, value = line.split(': ') |
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_monkeys[monkey] = value |
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Equation1 = _monkeys['root'].split()[0] |
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Equation2 = _monkeys['root'].split()[2] |
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print(Equation1, Equation2) |
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n = 0 |
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done = False |
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monkeys = _monkeys.copy() |
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monkeys['humn'] = 'humn' |
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while not done: |
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done = True |
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for item in Equation1.split(): |
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if item not in ['-','+','/','*','humn','(',')'] and not item.isnumeric(): |
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if monkeys[item].isnumeric(): |
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insert = monkeys[item] |
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else: |
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insert = '( ' + monkeys[item] + ' )' |
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Equation1 = Equation1.replace(item, insert) |
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done = False |
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break |
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done = False |
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while not done: |
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done = True |
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for item in Equation2.split(): |
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if item not in ['-','+','/','*','humn','(',')'] and not item.isnumeric(): |
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if monkeys[item].isnumeric(): |
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insert = monkeys[item] |
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else: |
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insert = '( ' + monkeys[item] + ' )' |
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Equation2 = Equation2.replace(item, insert) |
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done = False |
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break |
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if 'humn' in Equation1: |
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Equation1 = Equation1.replace('humn', 'x') |
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Equation = eval('lambda x:' + Equation1) |
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else: |
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Equation1 = eval('lambda x:' + Equation1) |
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number = Equation1(1) |
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|
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if 'humn' in Equation2: |
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Equation2 = Equation2.replace('humn', 'x') |
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Equation = eval('lambda x:' + Equation2) |
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else: |
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Equation2 = eval('lambda x:' + Equation2) |
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number = Equation2(1) |
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if Equation(0) < number: |
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increase = False |
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else: |
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increase = True |
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step = 100000000 |
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while not Equation(n) == number: |
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print(n, Equation(n), number) |
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if increase: |
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if Equation(n) < number: |
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increase = False |
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step /= 10 |
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else: |
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n += step |
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else: |
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if Equation(n) > number: |
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increase = True |
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step /= 10 |
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else: |
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n -= step |
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print(n) |
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print(Equation1,'\n', Equation2) |
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@ -0,0 +1,107 @@
@@ -0,0 +1,107 @@
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import re |
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#create a class to store the map |
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class plan: |
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def __init__(self): |
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self.grid = [] |
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self.goTo = [(0, 1), (1, 0), (0, -1), (-1, 0)] |
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|
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def addLine(self, inputLine): |
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inputLine = inputLine.replace(' ', '+') |
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self.grid.append(list(inputLine)) |
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def testPrint(self): |
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for line in self.grid: |
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for point in line: |
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print(point, end = ' ') |
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print('\n') |
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def setStart(self): |
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self.direction = 0 |
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self.column = self.grid[0].index('.') |
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self.row = 0 |
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maxL = 0 |
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for line in self.grid: |
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if len(line) > maxL: |
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maxL = len(line) |
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for i in range(len(self.grid)): |
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while len(self.grid[i]) < maxL: |
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self.grid[i].append('+') |
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|
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def getInstruction(self, instruction): |
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if instruction.isnumeric(): |
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self.move(int(instruction)) |
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if instruction.isalpha(): |
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self.turn(instruction) |
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|
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def turn(self, direction): |
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if direction == 'L': |
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self.direction -= 1 |
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if self.direction < 0: |
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self.direction = 3 |
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elif direction == 'R': |
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self.direction = (self.direction + 1) % 4 |
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def move(self, distance): |
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for _ in range(distance): |
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nextRow = self.row + self.goTo[self.direction][0] |
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nextCol = self.column + self.goTo[self.direction][1] |
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if nextRow < 0 or nextCol < 0 or nextRow >= len(self.grid) or nextCol >= len(self.grid[nextRow]) or self.grid[nextRow][nextCol] == '+': |
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nextRow, nextCol = self.wrapAround(nextRow, nextCol) |
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if self.grid[nextRow][nextCol] == '#': |
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return |
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self.column = nextCol |
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self.row = nextRow |
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|
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def wrapAround(self, nextRow, nextCol): |
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if self.direction == 0: |
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for i in range(len(self.grid[nextRow])): |
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if self.grid[nextRow][i] in ['.', '#']: |
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nextCol = i |
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break |
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elif self.direction == 1: |
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for i in range(len(self.grid)): |
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if self.grid[i][nextCol] in ['.', '#']: |
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nextRow = i |
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break |
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elif self.direction == 2: |
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for i in range(len(self.grid[nextRow])-1, 0, -1): |
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if self.grid[nextRow][i] in ['.', '#']: |
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nextCol = i |
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break |
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elif self.direction == 3: |
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for i in range(len(self.grid)-1, 0, -1): |
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if self.grid[i][nextCol] in ['.', '#']: |
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nextRow = i |
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break |
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return nextRow, nextCol |
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def getPassword(self): |
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return (self.column + 1)*4 + (self.row + 1)*1000 + self.direction |
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#create an object of the map |
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path = plan() |
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# reading input and inserting it into the map |
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with open('input22.txt','r') as f: |
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inp = f.read().splitlines(keepends=False) |
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for line in inp: |
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if line == '': |
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break |
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path.addLine(line) |
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instructionSet = inp[-1] |
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instructionSet = re.split('(\d+)', instructionSet) |
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path.setStart() |
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#go through the instructions |
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for instruction in instructionSet: |
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path.getInstruction(instruction) |
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#path.testPrint() |
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print(path.column + 1, path.row + 1, path.direction, sep = '---') |
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print(path.getPassword()) |
@ -0,0 +1,150 @@
@@ -0,0 +1,150 @@
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import re |
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#create a class to store the map |
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class plan: |
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def __init__(self): |
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self.grid = [] |
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self.goTo = [(0, 1), (1, 0), (0, -1), (-1, 0)] |
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|
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def addLine(self, inputLine): |
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inputLine = inputLine.replace(' ', '+') |
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self.grid.append(list(inputLine)) |
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def testPrint(self): |
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for line in self.grid: |
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for point in line: |
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print(point, end = ' ') |
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print('\n') |
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def setStart(self): |
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self.direction = 0 |
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self.column = self.grid[0].index('.') |
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self.row = 0 |
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maxL = 0 |
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for line in self.grid: |
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if len(line) > maxL: |
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maxL = len(line) |
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for i in range(len(self.grid)): |
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while len(self.grid[i]) < maxL: |
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self.grid[i].append('+') |
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def getInstruction(self, instruction): |
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if instruction.isnumeric(): |
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self.move(int(instruction)) |
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if instruction.isalpha(): |
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self.turn(instruction) |
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def turn(self, direction): |
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if direction == 'L': |
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self.direction -= 1 |
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if self.direction < 0: |
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self.direction = 3 |
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elif direction == 'R': |
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self.direction = (self.direction + 1) % 4 |
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def move(self, distance): |
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for _ in range(distance): |
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directionChange = self.direction |
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nextRow = self.row + self.goTo[self.direction][0] |
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nextCol = self.column + self.goTo[self.direction][1] |
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if nextRow < 0 or nextCol < 0 or nextRow >= len(self.grid) or nextCol >= len(self.grid[nextRow]) or self.grid[nextRow][nextCol] == '+': |
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nextRow, nextCol, directionChange = self.wrapAround(self.row, self.column) |
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if self.grid[nextRow][nextCol] == '#': |
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return |
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self.direction = directionChange |
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self.column = nextCol |
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self.row = nextRow |
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def wrapAround(self, nextRow, nextCol): |
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if self.direction == 0: |
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if nextRow < 50: |
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nextCol = 99 |
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nextRow = 149 - nextRow |
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directionChange = 2 |
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elif nextRow < 100: |
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nextCol = 50 + nextRow |
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nextRow = 49 |
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directionChange = 3 |
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elif nextRow < 150: |
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nextRow = 149 - nextRow |
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nextCol = 149 |
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directionChange = 2 |
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else: |
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nextCol = nextRow - 100 |
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nextRow = 149 |
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directionChange = 3 |
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elif self.direction == 1: |
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if nextCol < 50: |
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nextCol += 100 |
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nextRow = 0 |
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directionChange = 1 |
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elif nextCol < 100: |
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nextRow = 100 + nextCol |
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nextCol = 49 |
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directionChange = 2 |
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else: |
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nextRow = nextCol - 50 |
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nextCol = 99 |
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directionChange = 2 |
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elif self.direction == 2: |
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if nextRow < 50: |
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nextCol = 0 |
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nextRow = 149 - nextRow |
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directionChange = 0 |
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elif nextRow < 100: |
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nextCol = nextRow - 50 |
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nextRow = 100 |
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directionChange = 1 |
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elif nextRow < 150: |
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nextRow = 49 - (nextRow - 100) |
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nextCol = 50 |
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directionChange = 0 |
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else: |
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nextCol = nextRow - 100 |
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nextRow = 0 |
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directionChange = 1 |
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elif self.direction == 3: |
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if nextCol < 50: |
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nextRow = nextCol + 50 |
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nextCol = 50 |
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directionChange = 0 |
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elif nextCol < 100: |
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nextRow = nextCol + 100 |
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nextCol = 0 |
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directionChange = 0 |
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else: |
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nextCol = nextCol - 100 |
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nextRow = 199 |
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directionChange = 3 |
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return nextRow, nextCol, directionChange |
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def getPassword(self): |
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return (self.column + 1)*4 + (self.row + 1)*1000 + self.direction |
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#create an object of the map |
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path = plan() |
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|
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# reading input and inserting it into the map |
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with open('input22.txt','r') as f: |
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inp = f.read().splitlines(keepends=False) |
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for line in inp: |
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if line == '': |
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break |
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path.addLine(line) |
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instructionSet = inp[-1] |
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instructionSet = re.split('(\d+)', instructionSet) |
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path.setStart() |
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#go through the instructions |
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for instruction in instructionSet: |
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path.getInstruction(instruction) |
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# print solution |
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print(path.column + 1, path.row + 1, path.direction, sep = '---') |
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print(path.getPassword()) |
@ -0,0 +1,133 @@
@@ -0,0 +1,133 @@
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#defining a class for the map |
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class groveMap(): |
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def __init__(self): |
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self.grid = [] |
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self.checkOrder = [((-1, -1),(-1, 0),(-1, 1)),((1, -1),(1, 0),(1, 1)),((-1, -1),(0, -1),(1, -1)),((-1, 1),(0, 1),(1, 1))] |
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self.round = 0 |
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def addLine(self, line): |
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self.grid.append(list(line)) |
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def makeMove(self, elve, destination): |
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global lastRound |
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if destination not in self.doubles and elve != destination: |
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self.grid[elve[0]][elve[1]] = '.' |
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self.grid[destination[0]][destination[1]] = '#' |
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lastRound = False |
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def changeOrder(self): |
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self.checkOrder.append(self.checkOrder[0]) |
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self.checkOrder.pop(0) |
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def findElves(self): |
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self.round += 1 |
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self.extendGrid() |
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elves = {} |
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self.destList = [] |
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for y in range(len(self.grid)): |
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for x in range(len(self.grid[y])): |
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if self.grid[y][x] == '#': |
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dest = self.goTo(y, x) |
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elves[(y, x)] = dest |
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self.destList.append(dest) |
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self.findDoubles() |
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self.changeOrder() |
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return elves |
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def findDoubles(self): |
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self.doubles = [] |
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for dest in self.destList: |
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if self.destList.count(dest) > 1 and dest not in self.doubles: |
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self.doubles.append(dest) |
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def extendGrid(self): |
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self.grid.append(['.' for _ in range(len(self.grid[0]))]) |
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self.grid.insert(0, ['.' for _ in range(len(self.grid[-1]))]) |
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for i in range(len(self.grid)): |
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self.grid[i].insert(0, '.') |
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self.grid[i].append('.') |
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def goTo(self, y, x): |
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count = 0 |
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for directions in reversed(self.checkOrder): |
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dir1, dir2, dir3 = directions |
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if self.grid[y + dir1[0]][x + dir1[1]] == '.' and self.grid[y + dir2[0]][x + dir2[1]] == '.' and self.grid[y + dir3[0]][x + dir3[1]] == '.': |
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count += 1 |
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destY = y + dir2[0] |
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destX = x + dir2[1] |
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if count in [0, 4]: |
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destY = y |
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destX = x |
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return (destY, destX) |
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|
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def cleanup(self): |
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while True: |
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if '#' in self.grid[0]: |
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break |
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self.grid.pop(0) |
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while True: |
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if '#' in self.grid[-1]: |
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break |
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self.grid.pop(-1) |
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done = False |
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while not done: |
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for y in range(len(self.grid)): |
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if self.grid[y][0] == '#': |
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done = True |
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if done: |
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continue |
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for y in range(len(self.grid)): |
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self.grid[y].pop(0) |
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done = False |
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while not done: |
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for y in range(len(self.grid)): |
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if self.grid[y][-1] == '#': |
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done = True |
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if done: |
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continue |
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for y in range(len(self.grid)): |
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self.grid[y].pop(-1) |
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|
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def countSolution(self): |
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count = 0 |
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for line in self.grid: |
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count += line.count('.') |
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return count |
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|
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def testPrint(self): |
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for line in self.grid: |
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for point in line: |
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print(point, end=' ') |
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print('\n') |
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|
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|
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grove = groveMap() |
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|
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#read input |
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with open('input23.txt', 'r') as f: |
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inp = f.read().splitlines(keepends=False) |
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|
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for line in inp: |
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grove.addLine(line) |
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lastRound = False |
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|
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# solves part1, uncomment testprint to display state after 10 rounds |
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for _ in range(10): |
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elves = grove.findElves() |
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for elve in elves: |
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grove.makeMove(elve, elves[elve]) |
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#grove.testPrint() |
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grove.cleanup() |
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print('Empty tiles after round 10: ', grove.countSolution()) |
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|
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#solve part2 |
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while not lastRound: |
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lastRound = True |
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elves = grove.findElves() |
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for elve in elves: |
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grove.makeMove(elve, elves[elve]) |
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if grove.round % 100 == 0: |
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grove.cleanup() |
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#print(grove.round) |
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print('final round: ',grove.round) |
@ -0,0 +1,132 @@
@@ -0,0 +1,132 @@
|
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from queue import PriorityQueue |
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|
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qu = PriorityQueue() |
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qu2 = PriorityQueue() |
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currentbest = None |
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timestamps = {} |
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solutions = 0 |
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visted = [] |
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|
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class Vortex(): |
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def __init__(self, y, x): |
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self.y = y |
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self.x = x |
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|
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def givePosition(self, time): |
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return self.calcPosition(time) |
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|
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|
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class VortexRigth(Vortex): |
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def calcPosition(self, time): |
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current = (self.x + time) % width |
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return self.y, current |
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def __str__(self): |
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return 'Rigth' |
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|
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class VortexLeft(Vortex): |
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def calcPosition(self, time): |
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current = self.x - time |
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while current < 0: |
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current = width + current |
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return self.y, current |
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def __str__(self): |
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return 'Left' |
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|
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class VortexUp(Vortex): |
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def calcPosition(self, time): |
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current = self.y - time |
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while current < 0: |
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current = heigth + current |
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return current, self.x |
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def __str__(self): |
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return 'Up' |
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|
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class VortexDown(Vortex): |
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def calcPosition(self, time): |
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current = (self.y + time) % heigth |
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return current, self.x |
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def __str__(self): |
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return 'Down' |
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|
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def findPath(y, x, time): |
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#print(y, x, time) |
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global currentbest |
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global timestamps |
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global solutions |
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if y == heigth - 1 and x == width - 1: |
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solutions += 1 |
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if currentbest is None or currentbest > time: |
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currentbest = time |
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#print('solution found', currentbest) |
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return |
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if currentbest is not None and time + ((width - 1 - x) + (heigth - 1 - y))>= currentbest - 1: |
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return |
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if time + 1 not in timestamps: |
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timeList = [] |
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for vort in vorteces: |
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timeList.append(vort.givePosition(time + 1)) |
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timestamps[time + 1] = timeList |
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for nextMove in [(y, x),(y - 1, x),(y + 1, x),(y, x- 1),(y, x + 1)]: |
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#print(timestamps[time + 1], nextMove) |
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if nextMove not in timestamps[time + 1] and 0 <= nextMove[0] < heigth and 0 <= nextMove[1] < width: |
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if nextMove + (time + 1,) not in visted: |
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visted.append(nextMove + (time + 1,)) |
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if switch: |
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qu2.put((time + (heigth - nextMove[0]) + (width - nextMove[1]), (time + 1), -nextMove[0], -nextMove[1])) |
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else: |
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qu.put((-(time + 1), -((nextMove[0]+1)*(nextMove[1]+1)), -nextMove[0], -nextMove[1])) |
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|
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#reading input |
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initialState = [] |
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vorteces = [] |
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with open('input24.txt', 'r') as f: |
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inp = f.read().splitlines(keepends=False) |
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|
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for line in inp: |
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initialState.append(list(line)) |
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|
||||
heigth = len(initialState) - 2 |
||||
width = len(initialState[0]) - 2 |
||||
currentbest = heigth * width |
||||
|
||||
for y in range(len(initialState)): |
||||
for x in range(len(initialState[0])): |
||||
if initialState[y][x] == '>': |
||||
newVortex = VortexRigth(y - 1, x - 1) |
||||
vorteces.append(newVortex) |
||||
if initialState[y][x] == '<': |
||||
newVortex = VortexLeft(y - 1, x - 1) |
||||
vorteces.append(newVortex) |
||||
if initialState[y][x] == '^': |
||||
newVortex = VortexUp(y - 1, x - 1) |
||||
vorteces.append(newVortex) |
||||
if initialState[y][x] == 'v': |
||||
newVortex = VortexDown(y - 1, x - 1) |
||||
vorteces.append(newVortex) |
||||
switch = False |
||||
n = 0 |
||||
qu.put((-1, 0, 0, 0)) |
||||
while not qu.empty(): |
||||
if not switch and solutions > 0: |
||||
switch = True |
||||
time, _, y, x = qu.get() |
||||
n += 1 |
||||
if n % 10000 == 0: |
||||
print(n, solutions, time, currentbest) |
||||
findPath(abs(y), abs(x), abs(time)) |
||||
|
||||
while not qu2.empty(): |
||||
_, time, y, x = qu2.get() |
||||
n += 1 |
||||
if n % 10000 == 0: |
||||
print('n=', n, 'solutions=', solutions, 'time=', time, 'currentbest=', currentbest+1, 'queue=', qu2.qsize()) |
||||
findPath(abs(y), abs(x), abs(time)) |
||||
|
||||
print(currentbest + 1) |
||||
# for vort in vorteces: |
||||
# print(vort, '(', vort.y, vort.x, ')', vort.givePosition(3)) |
||||
|
||||
# for line in initialState: |
||||
# for point in line: |
||||
# print(point, end = ' ') |
||||
# print('\n') |
@ -0,0 +1,181 @@
@@ -0,0 +1,181 @@
|
||||
from queue import PriorityQueue |
||||
|
||||
qu = PriorityQueue() |
||||
qu2 = PriorityQueue() |
||||
currentbest = None |
||||
timestamps = {} |
||||
solutions = 0 |
||||
visted = [] |
||||
total = 0 |
||||
|
||||
class Vortex(): |
||||
def __init__(self, y, x): |
||||
self.y = y |
||||
self.x = x |
||||
|
||||
def givePosition(self, time): |
||||
return self.calcPosition(time) |
||||
|
||||
|
||||
class VortexRigth(Vortex): |
||||
def calcPosition(self, time): |
||||
current = (self.x + time) % width |
||||
return self.y, current |
||||
def __str__(self): |
||||
return 'Rigth' |
||||
|
||||
class VortexLeft(Vortex): |
||||
def calcPosition(self, time): |
||||
current = self.x - time |
||||
while current < 0: |
||||
current = width + current |
||||
return self.y, current |
||||
def __str__(self): |
||||
return 'Left' |
||||
|
||||
class VortexUp(Vortex): |
||||
def calcPosition(self, time): |
||||
current = self.y - time |
||||
while current < 0: |
||||
current = heigth + current |
||||
return current, self.x |
||||
def __str__(self): |
||||
return 'Up' |
||||
|
||||
class VortexDown(Vortex): |
||||
def calcPosition(self, time): |
||||
current = (self.y + time) % heigth |
||||
return current, self.x |
||||
def __str__(self): |
||||
return 'Down' |
||||
|
||||
def findPath(y, x, time): |
||||
#print(y, x, time) |
||||
global currentbest |
||||
global timestamps |
||||
global solutions |
||||
if y == goal[0] and x == goal[1]: |
||||
solutions += 1 |
||||
if currentbest is None or currentbest > time: |
||||
currentbest = time |
||||
#print('solution found', currentbest) |
||||
return |
||||
if currentbest is not None and time + (abs(goal[1] - x) + abs(goal[0] - y))>= currentbest - 1: |
||||
return |
||||
if time + 1 not in timestamps: |
||||
timeList = [] |
||||
for vort in vorteces: |
||||
timeList.append(vort.givePosition(time + 1)) |
||||
timestamps[time + 1] = timeList |
||||
for nextMove in [(y, x),(y - 1, x),(y + 1, x),(y, x- 1),(y, x + 1)]: |
||||
#print(timestamps[time + 1], nextMove) |
||||
if nextMove not in timestamps[time + 1] and ((0 <= nextMove[0] < heigth and 0 <= nextMove[1] < width) or (nextMove[0] == heigth and nextMove[1] == width - 1) or (nextMove[0] == -1 and nextMove[1] == 0)): |
||||
if nextMove + (time + 1,) not in visted: |
||||
visted.append(nextMove + (time + 1,)) |
||||
if switch: |
||||
qu2.put((time + abs(goal[0] - nextMove[0]) + abs(goal[1] - nextMove[1]), (time + 1), -nextMove[0], -nextMove[1])) |
||||
else: |
||||
qu.put((-(time + 1), -((nextMove[0]+1)*(nextMove[1]+1)), -nextMove[0], -nextMove[1])) |
||||
|
||||
#reading input |
||||
initialState = [] |
||||
vorteces = [] |
||||
with open('input24.txt', 'r') as f: |
||||
inp = f.read().splitlines(keepends=False) |
||||
|
||||
for line in inp: |
||||
initialState.append(list(line)) |
||||
|
||||
heigth = len(initialState) - 2 |
||||
width = len(initialState[0]) - 2 |
||||
currentbest = heigth * width |
||||
|
||||
for y in range(len(initialState)): |
||||
for x in range(len(initialState[0])): |
||||
if initialState[y][x] == '>': |
||||
newVortex = VortexRigth(y - 1, x - 1) |
||||
vorteces.append(newVortex) |
||||
if initialState[y][x] == '<': |
||||
newVortex = VortexLeft(y - 1, x - 1) |
||||
vorteces.append(newVortex) |
||||
if initialState[y][x] == '^': |
||||
newVortex = VortexUp(y - 1, x - 1) |
||||
vorteces.append(newVortex) |
||||
if initialState[y][x] == 'v': |
||||
newVortex = VortexDown(y - 1, x - 1) |
||||
vorteces.append(newVortex) |
||||
switch = False |
||||
n = 0 |
||||
qu.put((-1, 0, 0, 0)) |
||||
goal = (heigth - 1, width - 1) |
||||
while not qu.empty(): |
||||
if not switch and solutions > 0: |
||||
switch = True |
||||
time, _, y, x = qu.get() |
||||
n += 1 |
||||
if n % 10000 == 0: |
||||
print(n, solutions, time, currentbest) |
||||
findPath(abs(y), abs(x), abs(time)) |
||||
|
||||
while not qu2.empty(): |
||||
_, time, y, x = qu2.get() |
||||
n += 1 |
||||
if n % 10000 == 0: |
||||
print('n=', n, 'solutions=', solutions, 'time=', time, 'currentbest=', currentbest, 'queue=', qu2.qsize()) |
||||
findPath(abs(y), abs(x), abs(time)) |
||||
|
||||
print(currentbest + 1) |
||||
total = currentbest + 1 |
||||
currentbest = None |
||||
goal = (0, 0) |
||||
solutions = 0 |
||||
switch = True |
||||
n = 0 |
||||
qu.put((-(total), 0, heigth, width - 1)) |
||||
visted = [] |
||||
timestamps = {} |
||||
|
||||
while not qu.empty(): |
||||
if not switch and solutions > 0: |
||||
switch = True |
||||
time, _, y, x = qu.get() |
||||
n += 1 |
||||
if n % 10 == 0: |
||||
print(n, solutions, time, currentbest, y, x) |
||||
findPath(abs(y), abs(x), abs(time)) |
||||
|
||||
while not qu2.empty(): |
||||
_, time, y, x = qu2.get() |
||||
n += 1 |
||||
if n % 10000 == 0: |
||||
print('n=', n, 'solutions=', solutions, 'time=', time, 'currentbest=', currentbest, 'queue=', qu2.qsize()) |
||||
findPath(abs(y), abs(x), abs(time)) |
||||
|
||||
print(currentbest + 1) |
||||
total = currentbest + 1 |
||||
currentbest = None |
||||
goal = (heigth -1, width - 1) |
||||
solutions = 0 |
||||
switch = True |
||||
n = 0 |
||||
qu.put((-(total), 0, -1, 0)) |
||||
visted = [] |
||||
timestamps = {} |
||||
|
||||
while not qu.empty(): |
||||
if not switch and solutions > 0: |
||||
switch = True |
||||
time, _, y, x = qu.get() |
||||
n += 1 |
||||
if n % 10 == 0: |
||||
print(n, solutions, time, currentbest, y, x) |
||||
findPath(abs(y), abs(x), abs(time)) |
||||
|
||||
while not qu2.empty(): |
||||
_, time, y, x = qu2.get() |
||||
n += 1 |
||||
if n % 10000 == 0: |
||||
print('n=', n, 'solutions=', solutions, 'time=', time, 'currentbest=', currentbest, 'queue=', qu2.qsize()) |
||||
findPath(abs(y), abs(x), abs(time)) |
||||
|
||||
print(currentbest + 1) |
@ -0,0 +1,73 @@
@@ -0,0 +1,73 @@
|
||||
converter = { |
||||
'2' : 2, |
||||
'1' : 1, |
||||
'0' : 0, |
||||
'-' : -1, |
||||
'=' : -2 |
||||
} |
||||
|
||||
def maximum(n): |
||||
maxi = 0 |
||||
for x in range(n + 1): |
||||
maxi += 2*5**x |
||||
return maxi |
||||
|
||||
def decimalToSnafu(num): |
||||
n = 0 |
||||
while True: |
||||
if n == 0: |
||||
if num <= 2: |
||||
break |
||||
n += 1 |
||||
continue |
||||
if num <= maximum(n): |
||||
break |
||||
n += 1 |
||||
|
||||
rest = num |
||||
subtract = False |
||||
if n > 0: |
||||
Snafu = ['0' for x in range(n+1)] |
||||
for digit in range(n, -1, -1): |
||||
if rest > 0: |
||||
count, rest = divmod(rest, 5**digit) |
||||
if count != 2 and rest > maximum(digit - 1): |
||||
count += 1 |
||||
Snafu[-(digit+ 1)] = str(count) |
||||
elif rest < 0: |
||||
count, rest = divmod(abs(rest), 5**digit) |
||||
if count != 2 and rest > maximum(digit - 1): |
||||
count += 1 |
||||
if count == 2: |
||||
Snafu[-(digit+ 1)] = '=' |
||||
elif count == 1: |
||||
Snafu[-(digit+ 1)] = '-' |
||||
else: |
||||
Snafu[-(digit+ 1)] = '0' |
||||
rest = num - SnafuToDecimal(''.join(Snafu)) |
||||
return(Snafu) |
||||
else: |
||||
return str(num) |
||||
|
||||
def SnafuToDecimal(number): |
||||
number = list(reversed(number)) |
||||
decimal = 0 |
||||
for x in range(len(number)): |
||||
decimal += converter[number[x]] * 5 ** x |
||||
return decimal |
||||
|
||||
|
||||
total = 0 |
||||
|
||||
with open('input25.txt', 'r') as f: |
||||
numbers = f.read().splitlines(keepends=False) |
||||
|
||||
for number in numbers: |
||||
total += SnafuToDecimal(number) |
||||
|
||||
print(total) |
||||
print(''.join(decimalToSnafu(total))) |
||||
|
||||
|
||||
|
||||
|
@ -1,7 +1,13 @@
@@ -1,7 +1,13 @@
|
||||
1 |
||||
2 |
||||
-3 |
||||
3 |
||||
-2 |
||||
0 |
||||
4 |
||||
1=-0-2 |
||||
12111 |
||||
2=0= |
||||
21 |
||||
2=01 |
||||
111 |
||||
20012 |
||||
112 |
||||
1=-1= |
||||
1-12 |
||||
12 |
||||
1= |
||||
122 |
File diff suppressed because one or more lines are too long
@ -0,0 +1,71 @@
@@ -0,0 +1,71 @@
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||||
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@ -0,0 +1,27 @@
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||||
#.######################################################################################################################## |
||||
#>v>^>^<<^>v^>vv<.><>v^>vvv><.>^^.<.^>^vv>v^v>.>>>.v^>>^<v<v<.<<>v^v<^>^<<v>^<<v>><>^v<.^v^^v<v>>>^<.v<^^v>^^<>><v^v^<.v.# |
||||
#.>.^<.>^<v<.v>v^<^>>^v^>v>v<.v>v^v.>^><>v<>.^v><>.<v^>.v<<^..>^<<^<<>vv^<v<><v<^^>>v^><.>v<v<^>^^^^>..<<><>>^>^^<.>>v...# |
||||
#<<.><<<v^vv^<>>..<<>>>^<.<v^..vv><^vv^^<^<>>v<^>.<>^>v<>^>v><v^>v^>v><>>v^>vv>v^v>.>^v<^<^><^vv<^v>v^^v^.^<>v.^<>^.>v>v<# |
||||
#<^v^^><^^<^<v^^<^^<>.<^<v>v..<v^^vvv<>><v^.<>>><>v>^v>v<v.v.vv<vv<>><>><^^<vv>.>>.<>>^>v>^v.>.><<<<>^>^>v>v>^><^^v<^vv<># |
||||
#>><<v<>>>^^^<v^<><<>^^^<^>^v^v<^>>v.><<<<.>>^.<v^>v>^<<^<^^>^><^<>.<>vv^<v<v^<^^<v><v^vv^><.<^.^<v^^>v><^<<^^<vv^><v^v>># |
||||
#<>>^^>vvvvv.><>>^<v^>>v^^<<>^>vv^<^^^<^v<<v^<>v^v<^>>v^vv^<>^<>^<v^v^>v<.vv<<.<vvv<><<^^^v<^<v^^v<^^v>>vv^<.>v<.v^v^vv^.# |
||||
#.>v>.>^<>v>>.^vvv<^<^><<^^>.<<v<v^>>v<<<^.<>>>v<v>>^>><>v<^>.v^.^v>v^<>><>><^.v><.>v<>^<^^>v>>v^^v^<<v>v<v>.v.^>^^^^<><># |
||||
#>v<^^><^>.>^^^>vvv><v>>vv<v^<><^>^>^v>^><.v<^<v<>^>^.><^^<v<<><<><v^^.<v^^v^^><.>v<.<^^v^v.v>^v<^<<v<.v>..<vv<>.v<^v<>.<# |
||||
#><v>.><..v>v>^^^^<.>.<^^><^>v^^^^.><<^^v.>v<^<>vv>>>><>vv>>><>>>v.^v>>^vv<^<.>^>^><<>v^.<>.v<<<.<<vv<.v^>^<v^<>><>>^v<><# |
||||
#<^v<>^<<v>^..vv>^<<><^^<<>^<^^^v^^<^^v<^>><vv^<v<vv<vv.>^v.>^><>>v.>v>>^^v<>>v<<v>.v^vv^><v^<^><^><>>^v<v<.>^<^vv>>>>v^<# |
||||
#<>>>^^^><v<>v<^v^v.>v^<^^>>>^^<v<^.v^>.^^><<v<>><><>v<<vv>.v<v^<^^v^<<<^.>>^v^^v.^<><<>vv^>>^<<vv<^>v>><^>^v<v<>v<<.<vv<# |
||||
#<.><^.<>v<>^v.<>^>v>v>>.^>^v>>^^v>^.v.>>v>v>vv.><.^>^><.vvv<<v.>^<vv>v>^<^^v.v<<^^>v^^vv^>^.<<<<vv<><><<v>.<v<<<<^v<v>^<# |
||||
#>v^v.><^>v>vv^<>.<^<<v^^^v>>><>.^.^>vvv>v.><.>v><v^vv^<v<v>><^>>vv<v>^>vv^>v.<v<>^v>^<vv>^^>^^.^<>.v<<vvv.<v<>v^v<v>^>v># |
||||
#>>>^>v>^^<>>v>^vvv.>^vv^<v>.<>^vv>.<vv><..^^<<^.v<>^<<^.<>^v^^v.^>.^<^>>.>>v.<^^>v>>^<<^<<><<>>^^<^><<<>^.><<<>.vv>.>v^<# |
||||
#<.>>v>^<v<.^>><^v<^vv^>v^^<^^^^.>^v<<>^>.>>>vv<.^<>v^^<v><vv.^><<..^><v^v^vv>.>v>>>^>.^^^^<>>^<<>>^vv.<^>vv..><<<.>>>^>># |
||||
#<vv>vv>v<>^<^<^^v.v^>><>><<<.><<^<.>^>v^><>.<<^<^vv><<.>^v<.<>^>vvv>v^.^<<vv>^>>^>><^^<v.<..^..><.v...v^.^^<.v>>v<^<v^><# |
||||
#>v^>v^>><>>v><v<v>>.vvv<<^v<^^^.v<<^>.vvv<>>^.v^v.>>>>^>><>.<.><.<^>v>^<^.><^>><<^<v^>vv^>v<>^v.v<^>.<v>v<>v.><>>><.^.^<# |
||||
#.v>^v>^v<.^.>^.<^>^>>v<v>>vv<^<<^.<v^>v^^.<v^<.v^^>^<>v^^vv.v..>>vvv<vv<><<><^<vv<v^.^<^v^^vv^>>v<v<<^v<vvv>>>..>>^>.^>># |
||||
#<vvv>>^>>^<vv><>^>><v<v<><>^<^<<^><^<v<.^v<^v^v><<>>>.<>^>^.>.<.>v<.><^><><<<>v^>vv^^..>vv.^>>.<>vv<^v>v>><>^>^^.>v<v<.<# |
||||
#>.^^<<..v<<^>>^.^vv<>vv>v^><<v^.vv^<^>>^v<vv.>v>^>>.>^.^.v<<<.^v<>v^<^<>><><>^<v^<<>v^^v>^v.v<v^>>^..<^v<>.>..^^.>^v<v>># |
||||
#><.^v<vv>>.>^<.v<>.<<^>.<>>v^v>^>^^>>^>>>v><>v>>.>>vv.<vvvvvv>v<>.^^<>>>vv^>v..<>^<^>v<>><v^>.>v.^v>.^v>.<v><.>^<<<v>^>.# |
||||
#>^>>^vv>vv<^<^<<<>v>v>^^<^^<.>^<>vv<>^>v>>^^^^^<>^>>>v.v^>v<.^<>.v^<v>^^.>vvvv^>>v.^<v<^^>.^^^.^vv^<vv^v<vv<v^>^v^.^^.v># |
||||
#<<^v.>>>v>^<^<.vv>vv^^^.<v^^<v^vvvv^^>^<^<<^vv.^^>.<>^.^..<>v>v^>v>><^>^^^vv<^>v>>>v>^^>^><^^>vv^>.<>^^v^<v^.><v>^^>^v>># |
||||
#<vv><>.v<>.>^v^<v><^.<<<>v^.^><v>v><.<v^><><v<^.>vv<^^v^>v><.^...v>>^<<^><>><v^>><<v^vvv>^^>>.><<vv<v<^v<>>>>^v^>v<v>v<<# |
||||
#<.^^>^.^^>>>^<^^^^<<.>^<<<.>>>.>^<v^v>^v.>vv^..^.>.>>.<^^^v>^^vv<<>^v.>>>>^><>><v>v^v<>^^<<v^<<.vv.>^v.v^v^.>vvv..>v.>^># |
||||
########################################################################################################################.# |
@ -0,0 +1,116 @@
@@ -0,0 +1,116 @@
|
||||
1=-=2=-1000=0 |
||||
11=001122 |
||||
120- |
||||
1-0 |
||||
202-0==-2- |
||||
2-1010=2-2=01 |
||||
112=-2 |
||||
2-0= |
||||
1-=2-=-1-0--0=1=0000 |
||||
1=0=0--021-0 |
||||
11000101=210 |
||||
21-111=2112=2==- |
||||
111010-2 |
||||
2=10=-101-=--0 |
||||
2-=-2000012=0022= |
||||
1-=11-01--2100 |
||||
1=2211-2-=== |
||||
2=--2-==-1 |
||||
1=12---02=2 |
||||
1==0=--11=01-1- |
||||
121-21021 |
||||
12=1001=2=-=22 |
||||
1=2-212=2-0211 |
||||
20----11= |
||||
10=100=0=0 |
||||
111 |
||||
1=--011==2--212121= |
||||
2=-10=210200-2-=0 |
||||
1=-122=001-1 |
||||
2-0=0121=-0=0 |
||||
2-=20--1-=21-22=1= |
||||
20011 |
||||
12=1--=-0--10-0=1-= |
||||
2002=100=-00- |
||||
202 |
||||
1=2==21- |
||||
1=221--01=00-10= |
||||
1--0-1= |
||||
2-==11=222--- |
||||
21-10-=22 |
||||
1=--22-0- |
||||
2-0- |
||||
1-0=-2 |
||||
20-02102 |
||||
1=0=20----21=12=- |
||||
20=111-12=21101= |
||||
111=1=-2=0=--21 |
||||
11- |
||||
10-1=01=- |
||||
1222-10 |
||||
1=2-1 |
||||
20 |
||||
101==12-1-0 |
||||
1-=22=--=22=1=22 |
||||
1200-010-10=021 |
||||
1=2-10=-02--=- |
||||
12-0=000=0 |
||||
1==10=00===1-- |
||||
2-1=-=1===1=-0=--- |
||||
1=11=120 |
||||
2===002010=-=0 |
||||
1==00212=01-002=221 |
||||
10020221===- |
||||
1--01=-=0-20-101-=- |
||||
112=101 |
||||
10- |
||||
1220=1 |
||||
2= |
||||
1=1120=--0 |
||||
11-21200= |
||||
2==011-10-0==0=0= |
||||
12-=102 |
||||
100-022 |
||||
1=1 |
||||
201-0--=- |
||||
2-02 |
||||
21=11=00020 |
||||
12=20- |
||||
1101=00-1 |
||||
1=0=-11--=-010-==1 |
||||
1-2-0=00=-=220=11- |
||||
2-2 |
||||
12-2 |
||||
12=10=2-= |
||||
20222110-10002 |
||||
1002=0 |
||||
12=11-=012 |
||||
1== |
||||
1=00-01 |
||||
110101222-020--111 |
||||
2-0 |
||||
1-12=1 |
||||
222-10-12=00 |
||||
11=1=1 |
||||
10=2-00-121-2-=2 |
||||
1---22-1-0=00-1220 |
||||
2-=2210=-==2=010= |
||||
12201-111-220 |
||||
2=122=022=22=12-1 |
||||
211===2=020 |
||||
121-2-0-=0==2=1 |
||||
1-0221200-21100- |
||||
10 |
||||
1-11 |
||||
2===2=-2- |
||||
1-0-2021-21== |
||||
1==-00-=2-21===1200 |
||||
22 |
||||
1222=20=120=1- |
||||
11=120001012==01-1 |
||||
2=-1--00 |
||||
10==121--221 |
||||
1=2100102=20012 |
||||
2==1- |
||||
1- |
||||
10-2--0 |
Loading…
Reference in new issue