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// Code by SoundOfSpouting#6980 (UID: 151149148639330304)

#include <stddef.h>

void entry(char *grid, size_t width, size_t height, size_t x, size_t y)
{
	int j = x + width * y;
    if (0 <= y && y < height && 0 <= x && x < width && grid[j] < 1)
    {
        grid[j] = 1;
        entry(grid, width, height, x, y + 1);
        entry(grid, width, height, x, y - 1);
        entry(grid, width, height, x + 1, y);
        entry(grid, width, height, x - 1, y);
    }
}

-- // Code by SoundOfSpouting#6980 (UID: 151149148639330304)

STATE_X, STATE_O, STATE_N = "X", "O", "."

function entry(str) return serialize(best(parse(str), STATE_X, STATE_O)) end

function parse(str)
  local board, x, y = {{},{},{}}, 1, 1
  for i=1,#str do
    local char = str:sub(i,i)
    if char == "\n" then y, x = y + 1, 1 else board[y][x], x = char, x + 1 end
  end
  return board
end

-- Returns the application of the first optimal move of the given position.
-- Notice: Does not care about the runtime of the game. The only criteria considered is the favorability of the final position.
function best(board, turn, next)
  local nboard, res = nil, winner(board)
  if res ~= STATE_N then return nil, res end
  local t = moves(board)
  for _, move in ipairs(t) do
    local x, y, _nboard = move.x, move.y, copy(board)
    _nboard[y][x] = turn

    local _, _res = best(_nboard, next, turn)
    if _res == turn then return _nboard, _res
    elseif nboard == nil or res == next and _res == STATE_N then nboard, res = _nboard, _res end
  end
  return nboard, res
end

function winner(board)
  for y=1,3 do if board[y][1] == board[y][2] and board[y][2] == board[y][3] or board[1][y] == board[2][y] and board[2][y] == board[3][y] then return board[y][y] end end
  if board[1][1] == board[2][2] and board[2][2] == board[3][3] or board[1][3] == board[2][2] and board[2][2] == board[3][1] then return board[2][2] end
  return STATE_N
end

function moves(board)
  local t = {}
  for y=1,3 do for x=1,3 do if board[y][x] == STATE_N then table.insert(t, {x = x, y = y}) end end end
  return t
end

function copy(board)
  _board = {{},{},{}}
  for y=1,3 do for x=1,3 do _board[y][x] = board[y][x] end end
  return _board
end

function serialize(board)
  local str = ""
  for y=1,3 do
    for x=1,3 do str = str .. board[y][x] end
    str = str .. "\n"
  end
  return str
end

-- Notice: Calculates future optimal moves repeatedly.
function play(str, turn, next, count)
  board = parse(str)
  print(serialize(board))
  for i=1,count do
    board, turn, next = best(board, turn, next), next, turn
    print(serialize(board))
    if winner(board) ~= STATE_N then break end
  end
  print(({[STATE_X] = "First player", [STATE_O] = "Second player", [STATE_N] = "Nobody"})[winner(board)] .. " wins!")
end

// Code by SoundOfSpouting#6980 (UID: 151149148639330304)
int entry(int N)
{
   int M=1;
   for(int L=2;L<N;++L)
   {
      M*=L;
   }
   return 1-(M+1)%N;
}

// Code by SoundOfSpouting#6980 (UID: 151149148639330304)

class Bit is HasEq[Bit]
	let a: Bool val
	new val create(a': Bool) =>
		a = a'
	new val from_unsigned_integer[A: UnsignedInteger[A] val](n: UnsignedInteger[A]) =>
		a = n != A.min_value()
	fun val to_unsigned_integer[A: UnsignedInteger[A] val](): A =>
		let one = A.max_value() / A.max_value()
		let zero = one - one
		if a then one else zero end
	fun eq(bit: Bit box^): Bool =>
		a == bit.a

class Byte is HasEq[Byte]
	let data: (Bit val, Bit val, Bit val, Bit val, Bit val, Bit val, Bit val, Bit val)
	new val create(a: Bit val, b: Bit val, c: Bit val, d: Bit val, e: Bit val, f: Bit val, g: Bit val, h: Bit val) =>
		data = (a, b, c, d, e, f, g, h)
	new val from_unsigned_integer[A: UnsignedInteger[A] val](n: UnsignedInteger[A]) =>
		let one = A.max_value() / A.max_value()
		let two = one + one
		let three = two + one
		let four = two * two
		let five = four + one
		let six = five + one
		let seven = six + one
		data = (
			Bit.from_unsigned_integer[A](n.shr(three).mod(two)),
			Bit.from_unsigned_integer[A](n.shr(one).mod(two)),
			Bit.from_unsigned_integer[A](n.shr(four).mod(two)),
			Bit.from_unsigned_integer[A](n.shr(five).mod(two)),
			Bit.from_unsigned_integer[A](n.shr(two).mod(two)),
			Bit.from_unsigned_integer[A](n.shr(six).mod(two)),
			Bit.from_unsigned_integer[A](n.shr(seven).mod(two)),
			Bit.from_unsigned_integer[A](n.mod(two))
		)
	fun to_unsigned_integer[A: UnsignedInteger[A] val](): A =>
		let one = A.max_value() / A.max_value()
		(let a, let b, let c, let d, let e, let f, let g, let h) = data
		g.to_unsigned_integer[A]().shl(one)
			.add(f.to_unsigned_integer[A]()).shl(one)
			.add(d.to_unsigned_integer[A]()).shl(one)
			.add(c.to_unsigned_integer[A]()).shl(one)
			.add(a.to_unsigned_integer[A]()).shl(one)
			.add(e.to_unsigned_integer[A]()).shl(one)
			.add(b.to_unsigned_integer[A]()).shl(one)
			.add(h.to_unsigned_integer[A]())
	fun eq(byte: Byte box^): Bool =>
		(data._1 == byte.data._1) and
		(data._2 == byte.data._2) and
		(data._3 == byte.data._3) and
		(data._4 == byte.data._4) and
		(data._5 == byte.data._5) and
		(data._6 == byte.data._6) and
		(data._7 == byte.data._7) and
		(data._8 == byte.data._8)

type StackNodeOptional[A] is (StackNode[A] | None)

class Stack[A]
	var _left: StackNodeOptional[A] = None
	var _right: StackNodeOptional[A] = None
	fun ref pushL(value: A) =>
		let prevLeft = _left = StackNode[A](None, _left, consume value)
		match prevLeft | let node: StackNode[A] => node.left = _left end
		if _right is None then _right = _left end
	fun ref pushR(value: A) =>
		let prevRight = _right = StackNode[A](_right, None, consume value)
		match prevRight | let node: StackNode[A] => node.right = _right end
		if _left is None then _left = _right end
	fun ref popL(): A ? =>
		if _right is _left then _right = None end
		let leftNode = _left as StackNode[A]
		_left = leftNode.right
		leftNode.value
	fun ref popR(): A ? =>
		if _left is _right then _left = None end
		let rightNode = _right as StackNode[A]
		_right = rightNode.left
		rightNode.value
	fun peekL(): this->A ? =>
		(_left as this->StackNode[A]).value
	fun peekR(): this->A ? =>
		(_right as this->StackNode[A]).value

class StackNode[A]
	var left: StackNodeOptional[A]
	var right: StackNodeOptional[A]
	let value: A
	new create(left': StackNodeOptional[A], right': StackNodeOptional[A], value': A) =>
		left = left'
		right = right'
		value = consume value'

type TreeNode[A: HasEq[A] val] is (TreeBranchNode[A] | TreeLeafNode[A])

class Tree[A: HasEq[A] val]
	let head: TreeNode[A]
	new iso parsePostfix(delimeter: A, input: Array[A] val) ? =>
		let stack: Stack[TreeNode[A]] ref = Stack[TreeNode[A]]
		for value in input.values() do
			if value == delimeter then
				let right: TreeNode[A] = stack.popR()?
				let left : TreeNode[A] = stack.popR()?
				stack.pushR(TreeBranchNode[A](left, right))
			else stack.pushR(TreeLeafNode[A](value)) end
		end
		head = stack.peekR()?
		head
	fun ref invert() =>
		try (head as TreeBranchNode[A]).invert() end
	fun serializePrefix(delimeter: A): Iterator[A] =>
		head.serializePrefix(delimeter)

class TreeBranchNode[A: HasEq[A] val]
	var left: TreeNode[A]
	var right: TreeNode[A]
	new create(left': TreeNode[A], right': TreeNode[A]) =>
		left = left'
		right = right'
	fun ref invert() =>
		left = right = left
		try (left as TreeBranchNode[A] ref).invert() end
		try (right as TreeBranchNode[A] ref).invert() end
	fun serializePrefix(delimeter: A): Iterator[A] =>
		let stack: Stack[Iterator[A]] ref = Stack[Iterator[A]]
		stack.pushR(SingletonIterator[A](delimeter))
		stack.pushR(left.serializePrefix(delimeter))
		stack.pushR(right.serializePrefix(delimeter))
		ConcatIterators[A](stack)

class TreeLeafNode[A: HasEq[A] val]
	let value: A
	new create(value': A) =>
		value = consume value'
	fun serializePrefix(delimeter: A): Iterator[A] =>
		SingletonIterator[A](value)

primitive IteratorToArray[A: Any val]
	fun apply(a: Iterator[A]): Array[A] =>
		Array[A].>concat(a)

trait Map[A: Any val, B: Any val]
	fun apply(a: A): B

primitive UnsignedIntegerToByte[A: UnsignedInteger[A] val] is Map[A, Byte val]
	fun apply(a: A): Byte val =>
		Byte.from_unsigned_integer[A](a)

primitive ByteToUnsignedInteger[A: UnsignedInteger[A] val] is Map[Byte val, A]
	fun apply(b: Byte val): A =>
		b.to_unsigned_integer[A]()

primitive IdentityMap[A: Any val] is Map[A, A]
	fun apply(a: A): A =>
		a

class MapIterator[A: Any val, B: Any val] is Iterator[B]
	let itr: Iterator[A]
	let map: Map[A, B] val
	new create(itr': Iterator[A], map': Map[A, B] val) =>
		itr = consume itr'
		map = consume map'
	fun ref has_next(): Bool =>
		itr.has_next()
	fun ref next(): B ? =>
		map(itr.next()?)

primitive MapArray[A: Any val, B: Any val]
	fun apply(a: Array[A] val, map: Map[A, B] val): Array[B] =>
		IteratorToArray[B](MapIterator[A, B](a.values(), map))

class ConcatIterators[A] is Iterator[A]
	let stack: Stack[Iterator[A]]
	new create(stack': Stack[Iterator[A]]) =>
		stack = stack'
	fun ref has_next(): Bool =>
		try
			let itr = stack.peekL()?
			if itr.has_next() then true
			else
				stack.popL()?
				has_next()
			end
		else false end
	fun ref next(): A ? =>
		stack.peekL()?.next()?

class SingletonIterator[A] is Iterator[A]
	let value: A
	var unused: Bool = true
	new create(value': A) =>
		value = consume value'
	fun ref has_next(): Bool =>
		unused
	fun ref next(): A =>
		unused = false
		value

class Main
	fun entry(input: String): String =>
		try
			let tree = Tree[Byte val].parsePostfix(Byte.from_unsigned_integer[U8](','), recover val IteratorToArray[Byte val](MapIterator[U8, Byte val](input.values(), UnsignedIntegerToByte[U8])) end)?
			tree.invert()
			String.from_array(recover val IteratorToArray[U8](MapIterator[Byte val, U8]((consume tree).serializePrefix(Byte.from_unsigned_integer[U8]('`')), ByteToUnsignedInteger[U8])) end)
		else input end

-- // Code by SoundOfSpouting#6980 (UID: 151149148639330304)
import Data.List;entry p n=head$findIndices(\b->any(all(`elem`n))$b++transpose b++map(zipWith(!!)b)[[0..],[4,3..]])p

# Code by SoundOfSpouting#6980 (UID: 151149148639330304)
Entry←+´∘×

-- // Code by SoundOfSpouting#6980 (UID: 151149148639330304)
import Data.List
import System.Directory
import System.Environment
import System.Exit
import System.IO
import System.IO.Unsafe
import System.Process

eval = unsafePerformIO -- idiomatic

genAsmInsts _ []     []            = ""
genAsmInsts n os     (('[', 1):is) = asmInst '[' n <> genAsmInsts (n+1) (n:os) is
genAsmInsts n (o:os) ((']', 1):is) = asmInst ']' o <> genAsmInsts n     os     is
genAsmInsts n os     ((ins, c):is) = asmInst ins c <> genAsmInsts n     os     is

asmInst '>' c = "    add r1, " <> show c <> "\n"
asmInst '<' c = "    sub r1, " <> show c <> "\n"
asmInst '+' c = "    amp r1, " <> show c <> "\n"
asmInst '-' c = "    smp r1, " <> show c <> "\n"
asmInst ',' c =                        (unlines $ replicate c "    in r2" ) <> "    sto r1, r2\n"
asmInst '.' c = "    movf r2, r1\n" <> (unlines $ replicate c "    out r2")
asmInst '[' n = "movf r2, r1 \njz r2, %loop_end_"   <> show n <> "\n@loop_start_" <> show n <> "\n"
asmInst ']' n = "movf r2, r1\njnz r2, %loop_start_" <> show n <> "\n@loop_end_"   <> show n <> "\n"

genAsm = genAsmInsts 0 [] . map (\g @ (x:_) -> (x, length g)) . groupBy (\x y -> x `elem` "><+-,." && x == y)

main = do let (args, progName) = (eval getArgs, eval getProgName)

          let usageWarning = "Usage:\n    " <> progName <> " -c [INFILE] [OUTFILE]\n    " <> progName <> " -r [FILE]\n"
          let installationWarning cmd = "Could not find command \"" <> cmd <> "\"!\n" <> progName <> " requires asm2bf v1.5.4a to be installed!\n"

          let exitError e = putStr e >> exitWith (ExitFailure 1)

          let assertCommandExists cmd = if eval (waitForProcess ph) == ExitSuccess then return ()
                                        else exitError $ installationWarning cmd
                                        where (_, _, _, ph) = eval $ createProcess (proc "which" [cmd]){ std_out = CreatePipe }

          let executeCommand       cmd args = eval $ assertCommandExists cmd >> createProcess (proc cmd args){ std_in = CreatePipe,    std_out = CreatePipe, std_err = CreatePipe }
          let executeCommandIn hin cmd args = eval $ assertCommandExists cmd >> createProcess (proc cmd args){ std_in = UseHandle hin, std_out = CreatePipe, std_err = CreatePipe }
          let getCommandOutput (_, Just hout, _, _) = eval $ hGetContents hout

          case () of _
                       | length args >= 3 && args !! 0 == "-c" -> withFile (args !! 1) ReadMode (\sourceFile -> do withFile ("temp.asm") WriteMode $ flip hPutStr $ genAsm $ getCommandOutput $ executeCommandIn sourceFile "bfstrip" []
                                                                                                                   putStr $ getCommandOutput $ executeCommand "bfmake" ["temp.asm"]
                                                                                                                   renameFile "temp.b" $ args !! 2)
                       | length args >= 2 && args !! 0 == "-r" -> putStr $ getCommandOutput $ executeCommandIn stdin "bfi" [args !! 1]
                       | True                                  -> exitError usageWarning

#// Code by SoundOfSpouting#6980 (UID: 151149148639330304)

# Interpreter for the MDAS32 programming language
# example program: multiply 3 numbers (can't be negative)
# 2*5*7*9/0+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+0+0+0+0+0+0+0+0+8/0-8+0/0+8*8*8*8*8*8*8*8*8*8+8*8*8*8*8*8*8*8*8*8+8*8*8*8*8*8*8*8*8*8+8*8*8*8*8*8*8*8*8*8+8*8*8*8*8*8*8*8*8*8*2*2*4*8*8*8*8*8*8*8*8*8*8+2*8*8*8*8*8*8*8*8*8*8+8*8*8*8*8*8*8*8*8*8+8*8*8*8*8*8*8*8*8*8+0/0+0+0+5*5*5/3*2*5/0+8/0-8+0/0+8*8*8*8*8*8*8*8*8*8+8*8*8*8*8*8*8*8*8*8+8*8*8*8*8*8*8*8*8*8+8*8*8*8*8*8*8*8*8*8+8*8*8*8*8*8*8*8*8*8*2*2*4*8*8*8*8*8*8*8*8*8*8+2*8*8*8*8*8*8*8*8*8*8+8*8*8*8*8*8*8*8*8*8+8*8*8*8*8*8*8*8*8*8+0/0+0+0+8*8*8*8*8*8*8*8*8*8+8*8*8*8*8*8*8*8*8*8*5*2+0/0+2*5*8*8*8*8*8*8*8*8*8*8+8*8*8*8*8*8*8*8*8*8+1/0+8*8*8*8*8*8*8*8*8*8+8*8*8*8*8*8*8*8*8*8*5*2+0/0+2*5*8*8*8*8*8*8*8*8*8*8+8*8*8*8*8*8*8*8*8*8+1/0

обуви = '__main__'
def doWaist(ミドル, 週):
 return 週 * ミドル
def weekJoystick(息子, 短い):
 return 息子 // 短い
def concreteTune(残り, スケール):
 return スケール + 残り
def dishHip(ソリューション, 真の):
 return ソリューション - 真の
conceptDecline = list
rootTape = range
pageRational = len
movingLine = print
creepPrescription = input
discriminateGuest = max
throwSpectrum = min
accessDesigner = type
extractConstellation = str
spontaneousLake = float
marriageWisecrack = int
harmfulParade = SyntaxError
earComa = ZeroDivisionError
palmUrine = ValueError
кто = ''
жить = '*'
пункт = '/'
примечание = '+'
но = '-'
найдено = 'O'
хвост = '\n'
гласный = ' '
один = F'{хвост}{найдено}utput:{гласный}'
родитель = 'D'
представляют = '0123456789'
слово = F'Unexpected{гласный}'
удерживайте = F'{слово}end{гласный}of{гласный}input!'
весело = F'{хвост}Input:{гласный}'
вероятный = F''''{гласный}at{гласный}position{гласный}'''
музыка = F'{хвост}J{найдено}IN{гласный}'
искусство = 1
брат = F'{жить}{пункт}'
часть = F'{хвост}SPLIT{гласный}'
серый = F'{хвост}RETURN'
небо = F'{примечание}{но}'
сильный = F'{брат}{небо}'
взимать = '\nProgram: '
красота = -искусство
назад = dishHip(искусство, красота)
река = F'{найдено}{примечание}'
улыбка = F'{найдено}{но}'
глагол = doWaist(назад, назад)
лошадь = гласный*глагол
гонка = F'{лошадь}EVAL{хвост}{лошадь}'
поле = concreteTune(искусство, красота)
радость = not поле
мяч = not радость
黒 = [брат, небо]
ネバー = {}
ネバー[жить] = doWaist
ネバー[пункт] = weekJoystick
ネバー[примечание] = concreteTune
ネバー[но] = dishHip
следовать = назад ** concreteTune(назад ** dishHip(глагол, красота), красота)
приравнять = doWaist(следовать, назад)
def chinWedding(ストレッチ):
 ストレッチ = conceptDecline(ストレッチ)
 妻 = красота
 for チャート in rootTape(pageRational(ストレッチ)):
  if チャート % назад == поле:
   if ストレッチ[チャート] not in представляют:
     妻 = チャート
     break
   ストレッチ[チャート] = marriageWisecrack(ストレッチ[チャート])
  elif ストレッチ[チャート] not in сильный:
   妻 = チャート
   break
 else:
  if pageRational(ストレッチ) % назад == поле:
   raise harmfulParade(удерживайте)
  return ストレッチ
 raise harmfulParade(F'''{слово}'{ストレッチ[妻]}{вероятный}{妻}!''')
def entry(オフィス, ノイズ = [], まだ = поле, 低い = искусство, イベント = радость, 目 = мяч):
 if イベント:
  オフィス = chinWedding(オフィス)
 if 権利:
  movingLine()
  offerHeat(オフィス)
 の間で = радость
 必要とする = мяч
 def privilegeEast(等しい):
  nonlocal の間で
  nonlocal 必要とする
  nonlocal まだ
  nonlocal 低い
  トウモロコシ = 低い % dishHip(pageRational(オフィス), искусство)
  while поле < トウモロコシ and トウモロコシ < dishHip(pageRational(オフィス), искусство):
   if オフィス[トウモロコシ] not in 等しい:
     トウモロコシ = concreteTune(doWaist(назад, 低い), トウモロコシ)
     continue
   必要とする = stitchMouth(オフィス, ノイズ, トウモロコシ, まだ, 低い)
   if 権利:
     offerHeat(オフィス)
   トウモロコシ = concreteTune(トウモロコシ, dishHip(低い, искусство))
   if 必要とする == радость:
     return мяч
   if 必要とする == '打开':
     の間で = мяч
     return мяч
   if 必要とする == река:
     まだ = dishHip(искусство, まだ)
     return мяч
   if 必要とする == улыбка:
     低い = doWaist(красота, 低い)
     return мяч
  return радость
 while の間で and pageRational(オフィス) > искусство:
  if 権利:
   movingLine(F'''{гласный}{['>', '<'][weekJoystick(dishHip(искусство, 低い), назад)]}{гласный}{['MD', 'AS'][まだ]}''')
  if 必要とする == '打开' or (privilegeEast(黒[まだ]) and pageRational(オフィス) > искусство and privilegeEast(黒[dishHip(искусство, まだ)])):
   break
 if 目:
  return ([オフィス[поле], まだ, 低い])
 return オフィス[поле]
権利 = мяч
def offerHeat(そして):
 モーション = кто
 for 詩 in rootTape(поле, pageRational(そして)):
  if 詩 % назад == поле:
   モーション = concreteTune(extractConstellation(そして[詩]).replace(но, '_'), モーション)
  else:
   モーション = concreteTune(そして[詩], モーション)
 movingLine(モーション)
def stitchMouth(母, ゴールド, ヘッド, キャプテン, 看板):
 王 = мяч
 コロニー = dishHip(ヘッド, 看板)
 モーション = concreteTune(ヘッド, 看板)
 if 権利:
  movingLine(F'{гонка}{母[コロニー]}{гласный}{母[ヘッド]}{гласный}{母[モーション]}')
 if 母[ヘッド] == пункт and 母[モーション] == поле:
  if 母[コロニー] == поле:
   母[コロニー] = loanExaggerate(ゴールド)
  elif accessDesigner(母[コロニー]) == spontaneousLake: # Prolog
   意味する = concreteTune(モーション, 看板)
   if 看板 == искусство:
     ソフト = pageRational(母)
   else:
     ソフト = красота
   母.extend(母[意味する:ソフト:])
   王 = радость
  elif 母[コロニー] % назад == поле:
   夜 = weekJoystick(母[コロニー], назад)
   if (母[コロニー] / назад) % назад == поле: # Chapter 1
     開発する = concreteTune(モーション, 看板)
     if 看板 == искусство:
        男の子 = pageRational(母)
     else:
        男の子 = красота
     受け取る = 母[開発する:男の子:]
     for 明るい in rootTape(開発する, 男の子, 看板):
        母[明るい] = 受け取る[dishHip(dishHip(明るい, 開発する), 夜) % pageRational(受け取る)]
     王 = радость
   else: # Chapter 2
     実験 = []
     言葉 = concreteTune(モーション, doWaist(назад, 看板))
     while поле <= 言葉 and 言葉 < pageRational(母):
        敵 = concreteTune(言葉, doWaist(看板, dishHip(夜, искусство)))
        殺す = discriminateGuest(поле, throwSpectrum(言葉, 敵))
        小さい = concreteTune(discriminateGuest(言葉, 敵), искусство)
        実験.append(母[殺す:小さい:])
        言葉 = concreteTune(doWaist(看板, concreteTune(夜, искусство)), 言葉)
     for 巨大な in rootTape(искусство, pageRational(実験)):
        参加する = dishHip(pageRational(実験), 巨大な)
        if 権利:
             movingLine(F'{часть}{巨大な}{гласный}{ゴールド[::]}', end = кто)
        (実験[参加する], キャプテン, 看板) = entry(実験[参加する], ゴールド[::], キャプテン, 看板, мяч, радость)
     if pageRational(実験) > поле:
        作品 = 実験[искусство::]
        作品.extend(ゴールド)
        if 権利:
             movingLine(F'{музыка}{作品}', end = кто)
        母[コロニー] = entry(実験[поле], 作品, キャプテン, 看板, мяч)
     if 権利:
        movingLine(серый)
  else:
   try:
     weekJoystick(母[コロニー], 母[モーション])
   except earComa as クラス:
     movingLine(F'{accessDesigner(クラス).__name__}:{гласный}{クラス}')
     王 = '打开'
 else:
  (母[コロニー], 王) = sellerFlavour(ネバー[母[ヘッド]](母[コロニー], 母[モーション]))
 if 権利:
  movingLine(F'{лошадь}{母[コロニー]}')
 if 権利 and (王 == улыбка or 王 == река):
  movingLine(F'{лошадь}{王}')
 del 母[discriminateGuest(ヘッド, モーション)]
 del 母[throwSpectrum(ヘッド, モーション)]
 return 王
def sellerFlavour(スタート):
 騒々しい = мяч
 if スタート < -следовать:
  騒々しい = улыбка
 elif スタート > dishHip(следовать, weekJoystick(красота, красота)):
  騒々しい = река
 return (moonRich(スタート), 騒々しい)
def moonRich(意味):
 return dishHip(concreteTune(意味, следовать) % приравнять, следовать)
def abundantConventional(歌):
 (金庫, 終わった) = sellerFlavour(歌)
 movingLine(F'{хвост}{лошадь}{歌}{хвост}=>{гласный*назад}{金庫}{хвост}{найдено}?{гласный*назад}{終わった}{хвост}')
 return 終わった
def loanExaggerate(見つける):
 while pageRational(見つける) < искусство:
  movingLine(весело, end = кто)
  シーズン = creepPrescription().split(гласный)
  for 低い in シーズン:
   try:
     見つける.append(moonRich(marriageWisecrack(低い)))
     break
   except palmUrine:
     pass
   try:
     見つける.append(moonRich(spontaneousLake(低い)))
     break
   except palmUrine:
     pass
   見つける.append(moonRich(marriageWisecrack(低い)))
 return 見つける.pop(поле)
if __name__ == обуви:
 movingLine(взимать, end = кто)
 長さ = extractConstellation(creepPrescription())
 if 長さ[поле].upper() == родитель:
  権利 = радость
  長さ = 長さ[искусство::]
 movingLine(F'{один}{entry(長さ)}{хвост}')

# 'This is only a demo but thank you for playing my- thank you for playing my game please buy it when it comes out' -Shakira Miyamoto. Signed officially. 'I hope you like this game it is not complete pl- please be nice.'