moshikoi's code guessing stats

name	correct guesses	games together	ratio
seshoumara	7	7	1.000
kotnen	3	4	0.750
Olivia	6	13	0.462
luatic	3	7	0.429
IFcoltransG	2	5	0.400
olus2000	5	14	0.357
kimapr	2	6	0.333
taswelll	2	7	0.286
soup girl	1	7	0.143
Palaiologos	1	8	0.125
LyricLy	2	18	0.111
razetime	1	10	0.100
GNU Radio Shows	0	4	0.000
JJRubes	0	6	0.000
olive	0	4	0.000
Dolphy	0	4	0.000

name	correct guesses	games together	ratio
kotnen	2	4	0.500
Dolphy	2	4	0.500
LyricLy	6	19	0.316
Olivia	4	13	0.308
soup girl	2	7	0.286
kimapr	2	7	0.286
luatic	2	8	0.250
taswelll	2	8	0.250
Palaiologos	1	6	0.167
JJRubes	1	7	0.143
olus2000	2	14	0.143
razetime	1	11	0.091
GNU Radio Shows	0	4	0.000
seshoumara	0	7	0.000
olive	0	4	0.000
IFcoltransG	0	5	0.000

<!DOCTYPE html>
<html>

<head>
    <meta charset="UTF-8" />
    <title>VSCode 2</title>
</head>

<body>
    <button id="open">Open</button>
    <button id="save">Save</button>
    <textarea id="input"></textarea>
    <script>
        document.getElementById('open').addEventListener('click', async _ => {
            const { path, content } = await electronAPI.openFile();
            document.getElementById('input').value = content
        });
        document.getElementById('save').addEventListener('click', async _ => {
            await electronAPI.saveFile(document.getElementById('input').value);
        });
    </script>
</body>

</html>

const { app, BrowserWindow, dialog, ipcMain } = require('electron');
const { readFile, writeFile } = require('node:fs/promises');
const { } = require('node:os');
const path = require('node:path');

var filePath = null;

var win;

async function handleFileOpen(event, obj) {
        const { canceled, filePaths } = await dialog.showOpenDialog(win);
        var content;
        if (canceled) {
                filePath = null;
                content = '';
        } else {
                filePath = filePaths[0];
                content = await readFile(filePaths[0], 'utf-8');
        }

        return { filePath, content };
}

async function handleFileSave(event, content) {
        await writeFile(filePath, content);
}

async function createWindow() {
        win = new BrowserWindow({
                width: 800,
                height: 600,
                webPreferences: {
                        preload: path.join(__dirname, 'preload.js')
                }
        });

        win.loadFile('index.html');
        ipcMain.handle('open-file', handleFileOpen);
        ipcMain.handle('save-file', handleFileSave);
};

app.whenReady().then(() => {
        createWindow();
});

{
  "name": "cg62",
  "version": "1.0.0",
  "description": "",
  "main": "index.js",
  "scripts": {
    "start": "electron .",
    "test": "echo \"Error: no test specified\" && exit 1"
  },
  "keywords": [],
  "author": "SoundOfSpouting#6980 (UID: 151149148639330304)",
  "license": "ISC",
  "devDependencies": {
    "electron": "^31.3.1"
  }
}

const { contextBridge, ipcRenderer } = require('electron/renderer');

contextBridge.exposeInMainWorld('electronAPI', {
    openFile() { return ipcRenderer.invoke('open-file'); },
    saveFile(text) { return ipcRenderer.invoke('save-file', text); }
});

#include <algorithm>
#include <format>
#include <iostream>
#include <map>
#include <numeric>
#include <print>
#include <ranges>
#include <stack>
#include <string>
#include <string_view>
#include <vector>

class Interpreter {
  std::reference_wrapper<std::vector<Interpreter>> _interpreters;

  std::stack<int> _stack;
  std::stack<std::size_t> _reps;
  std::stack<std::size_t> _jmps;
  std::size_t _ic = 0;
  bool _finished = false;
  double _weight = 0.0;
  std::string_view _code;

  std::vector<int> _memory;

public:
  Interpreter(std::vector<Interpreter> &interpreters, std::string_view code)
      : _interpreters{interpreters}, _code{code}, _memory(0xffffff) {}

  int pop() {
    if (_stack.empty()) {
      return 0;
    }
    auto const value = _stack.top();
    _stack.pop();
    return value;
  }

  bool step() {
    if (_ic >= _code.length()) {
      return false;
    }

    char const ch = _code[_ic++];
    switch (ch) {
    case '#':
      _stack.push(0);
      break;
    case '+':
      ++_stack.top();
      break;
    case '@': {
      auto const address = pop();
      _stack.push(_memory[address]);
      break;
    }
    case '!': {
      auto const address = pop();
      auto const value = pop();
      _memory[address] = value;
      break;
    }
    case '?': {
      auto const value = pop();
      _interpreters.get().append_range(make_copies(value));
      break;
    }
    case '[': {
      auto const value = _stack.top();
      _reps.push(value);
      _jmps.push(_ic);
      break;
    }
    case ']':
      --_reps.top();
      _ic = _jmps.top();
      break;
    case '|': {
      auto const value = _stack.top();
      if (value == 0 or _reps.top() == 0) {
        _reps.pop();
        _jmps.pop();
        int braces = 1;

        while (true) {
          if (_code[_ic] == '[') {
            ++braces;
          } else if (_code[_ic] == ']') {
            if (braces == 0) {
              break;
            } else {
              --braces;
            }
          }
          ++_ic;
        }
        ++_ic;
      }
    }
    default:
      throw std::runtime_error(std::format("Invalid character {}", ch));
    }
    return true;
  }

  std::vector<Interpreter> make_copies(int n) {
    return to<std::vector>(std::ranges::views::iota(n) |
                           std::ranges::views::transform([&](auto i) {
                             auto copy = *this;
                             copy._weight = _weight / (n + 1);
                             copy._stack.push(_ic);
                             return copy;
                           }));
  }

  double weight() { return _weight; }
};

int interpret(std::string_view code) {
  std::vector<Interpreter> interpreters;
  std::vector<Interpreter> finished_interpreters;

  interpreters.emplace_back(interpreters, code);

  while (not interpreters.empty()) {
    for (int i = 0; i < interpreters.size();) {
      if (not interpreters[i].step()) {
        finished_interpreters.push_back(interpreters[i]);
        interpreters.erase(interpreters.begin() + i);
      } else {
        ++i;
      }
    }
  }

  std::map<int, double> outputs;
  for (auto &&interpreter : finished_interpreters) {
    outputs[interpreter.pop()] += interpreter.weight();
  }

  return std::ranges::max_element(
             outputs, [](auto &p1, auto &p2) { return p1.second < p2.second; })
      ->first;
}

int main() {
  std::string line;
  std::getline(std::cin, line);
  std::println("{"
               "}",
               interpret(line));
}

#include <stdio.h>
#include <stdlib.h>
#include <string.h>

static bool entry_impl(const char **const ptr, char **const out) {
  char *const savepoint = out ? *out : nullptr;
  bool success = true;
  while (**ptr && **ptr != ')') {
    switch (**ptr) {
    case '\\': (*ptr)++;
    default:
      const char c = **ptr;
      if (*++*ptr == '*')
        (*ptr)++;
      else if (out)
        *(*out)++ = c;
      break;
    case '[':
      (*ptr) += 2;
      if (**ptr == '*')
        (*ptr)++;
      else
        success = false;
      break;
    case '(': {
      (*ptr)++;
      char *const savepoint = out ? *out : nullptr;
      bool inner_success = entry_impl(ptr, out);
      (*ptr)++;
      if (!inner_success) {
        if (**ptr == '*') {
          (*ptr)++;
          if (out) *out = savepoint;
        } else
          success = false;
      }
      break;
    }
    case '|':
      (*ptr)++;
      if (success || !out) {
        entry_impl(ptr, nullptr);
        break;
      } else {
        *out = savepoint;
        return entry_impl(ptr, out);
      }
    }
  }
  return success;
}

bool entry(const char *regex, char *out) {
  if (entry_impl(&regex, &out)) {
    *out = 0;
    return true;
  }
  return false;
}

int run(char *regex, size_t len) {
  char *res = malloc(len);
  if (entry(regex, res)) {
    puts(res);
    free(res);
    return 0;
  } else {
    fputs("No valid string", stderr);
    free(res);
    return 1;
  }
}

int main(int argc, char **argv) {
  int ret;
  switch (argc) {
  case 1:
    const int INPUT_LIMIT = 1'000;
    char * const input = malloc(INPUT_LIMIT);
    if (!fgets(input, INPUT_LIMIT, stdin)) {
      puts("Couldn't read input");
      return 1;
    }
    ret = run(input, strlen(input) + 1);
    free(input);
    return ret;
  case 2:
    size_t buffer_capacity = 2048;
    size_t buffer_size = 0;
    char *buffer = malloc(buffer_capacity);

    FILE *file;
    if (!(file = fopen(argv[1], "r"))) {
      fprintf(stderr, "Failed to read from %s", argv[1]);
      return 1;
    }
    size_t read_count;
    while (1) {
      if (buffer_size == buffer_capacity - 1) buffer = realloc(buffer, buffer_capacity *= 2);
      read_count = fread(buffer + buffer_size, 1, buffer_capacity - 1 - buffer_size, file);
      if (!read_count) break;
      buffer_size += read_count;
    }
    buffer[buffer_size] = 0;
    ret = run(buffer, buffer_size + 1);
    free(buffer);
    return ret;
  case 3: return run(argv[2], strlen(argv[2]) + 1);
  }
}

add_executable(main)

target_sources(main
    PUBLIC
        FILE_SET modules TYPE CXX_MODULES
        FILES main.cpp tile.cpp traveler.cpp)

module;

#include <format>
#include <fstream>
#include <generator>
#include <iostream>
#include <print>
#include <string>

export module main;

import tile;
import traveler;

std::generator<std::string const &>
lines(std::istream &is) {
	std::string line;
	while (std::getline(is, line)) {
		co_yield line;
	}
	co_return;
}

bool
has_victory(std::vector<std::vector<Tile>> &grid) {
	auto const width = std::ranges::max(grid | std::views::transform([](auto const &row) { return row.size(); }));
	auto const height = grid.size();

	for (int row = 0; row < grid.size(); ++row) {
		for (int col = 0; col < grid[row].size(); ++col) {
			Tile &tile = grid[row][col];

			if (tile.connection(Direction::North) != Direction::North) {
				Traveler traveler{row, col, Direction::South};
				traveler.travel(grid);

				if (traveler.row == row && traveler.col == col) {
					return true;
				}

				if (traveler.direction == Direction::South && height > 7 && traveler.row - row == height) {
					return true;
				}
			}

			if (tile.connection(Direction::West) != Direction::West) {
				Traveler traveler{row, col, Direction::East};
				traveler.travel(grid);

				if (traveler.row == row && traveler.col == col) {
					return true;
				}

				if (traveler.direction == Direction::East && width > 7 && traveler.col - col == width) {
					return true;
				}
			}
		}
	}
	return false;
}

int
entry(std::istream &is) {
	std::vector<std::vector<Tile>> grid;

	for (auto const &line : lines(is)) {
		std::vector<Tile> row;

		for (char ch : line) {
			switch (ch) {
			case ' ': row.push_back(Tile::Blank); break;
			case '+': row.push_back(Tile::Cross); break;
			case '/': row.push_back(Tile::Slash); break;
			case '\\': row.push_back(Tile::Backslash); break;
			default: throw std::runtime_error{std::format("Invalid character '{}'", ch)};
			}
		}

		grid.push_back(row);
	}

	if (has_victory(grid)) {
		std::println("Victory");
	} else {
		std::println("No victory");
	}

	return 0;
}

int
main(int argc, char const **argv) {
	try {
		if (argc < 2) {
			entry(std::cin);
		} else {
			std::ifstream is(argv[1]);
			entry(is);
		}
	} catch (std::exception ex) {
		std::println(std::cerr, "{}", ex.what());
		return 1;
	}
}

module;

#include <cstdint>
#include <utility>

export module tile;

export enum class Direction : std::uint8_t {
	East = 0b00,
	North = 0b01,
	West = 0b10,
	South = 0b11,
};

export Direction
opposite(Direction direction) {
	switch (direction) {
	case Direction::East: return Direction::West;
	case Direction::North: return Direction::South;
	case Direction::West: return Direction::East;
	case Direction::South: return Direction::North;
	default: std::unreachable();
	}
}

export class Tile {
  public:
	static Tile const Blank;
	static Tile const Cross;
	static Tile const Slash;
	static Tile const Backslash;

	Direction connection(Direction entry) const;
	void remove_connection(Direction entry);
	bool empty() const { return good != 0b00; }

  private:
	std::underlying_type_t<Direction> direction : 2;
	std::uint8_t good : 2;

	Tile(Direction east) : direction{std::to_underlying(east)}, good{0b11} {}
};

Tile const Tile::Blank{Direction::East};
Tile const Tile::Cross{Direction::West};
Tile const Tile::Slash{Direction::South};
Tile const Tile::Backslash{Direction::North};

Direction
Tile::connection(Direction entry) const {
	Direction const exit = static_cast<Direction>(direction ^ std::to_underlying(entry));
	bool const is_good = (good >> (entry == Direction::East || exit == Direction::East)) & 1;
	return is_good ? exit : entry;
}

void
Tile::remove_connection(Direction entry) {
	Direction const exit = static_cast<Direction>(direction ^ std::to_underlying(entry));
	good &= ~(1 << (entry == Direction::East || exit == Direction::East));
}

module;

#include <vector>

export module traveler;

import tile;

export class Traveler {
  public:
	int row;
	int col;
	Direction direction;

	Traveler(int row, int col, Direction direction) : row{row}, col{col}, direction{direction} {}

	void travel(std::vector<std::vector<Tile>> &grid);

  private:
	bool step(std::vector<std::vector<Tile>> &grid);
};

void
Traveler::travel(std::vector<std::vector<Tile>> &grid) {
	while (0 <= row && row < grid.size() && 0 <= col && col < grid[row].size()) {
		if (!step(grid)) {
			break;
		}
	}
}

bool
Traveler::step(std::vector<std::vector<Tile>> &grid) {
	Tile &current_tile = grid[row][col];

	Direction entry = opposite(direction);
	Direction const next = current_tile.connection(entry);

	if (entry == next) {
		return false;
	}

	current_tile.remove_connection(entry);
	direction = next;

	switch (direction) {
	case Direction::East: col += 1; break;
	case Direction::North: row -= 1; break;
	case Direction::West: col -= 1; break;
	case Direction::South: row += 1; break;
	default: std::unreachable();
	}

	return true;
}

#include <cstddef>
#include <iostream>
#include <limits>
#include <memory>
#include <stdexcept>
#include <string>
#include <type_traits>
#include <utility>

enum class Color {
	None = 0,
	White = 1,
	Black = 2,
};

Color
opposite(Color color) {
	return color == Color::White ? Color::Black : Color::White;
}

class Board {
	static constexpr auto transposition_table_size = 2 << 10;
	static constexpr auto win_score = 10000;

	Color currentColor;
	int height[7];
	Color grid[7][6];

	struct Transposition {
		bool valid;
		int score;
		std::size_t hash;
	};

	std::unique_ptr<Transposition[]> transposition_table;

  public:
	Board() : height{}, grid{{Color::None}}, currentColor{Color::White} { transposition_table = std::make_unique<Transposition[]>(transposition_table_size); }

	int get_best_move() {
		int bestColumn = 0;
		int bestScore = -win_score;

		for (int column = 0; column < 7; ++column) {
			if (height[column] == 6) {
				continue;
			}
			drop(column);
			int score = is_win(opposite(currentColor), column, height[column] - 1) ? win_score : -negamax(6, -win_score, win_score);
			undrop(column);

			if (score > bestScore) {
				bestColumn = column;
				bestScore = score;
			}
		}

		return bestColumn;
	}

	void drop(int column) {
		auto &columnHeight = height[column];
		if (columnHeight >= 6) {
			throw std::runtime_error{"Attempted to drop a tile on a full column"};
		}
		grid[column][columnHeight] = currentColor;
		currentColor = opposite(currentColor);
		++columnHeight;
	}
	void undrop(int column) {
		auto &columnHeight = height[column];
		--columnHeight;
		grid[column][columnHeight] = Color::None;
		currentColor = opposite(currentColor);
	}

	int negamax(int depth, int alpha, int beta) {
		auto const hash = state_hash();
		auto &entry = transposition_table[hash % transposition_table_size];
		if (entry.valid && entry.hash == hash) {
			return entry.score;
		}
		if (depth < 0) {
			return eval();
		}

		for (int column = 0; column < 7; ++column) {
			if (height[column] == 6) {
				continue;
			}
			drop(column);
			int score = is_win(opposite(currentColor), column, height[column] - 1) ? win_score : -negamax(depth - 1, -beta, -alpha);
			undrop(column);
			if (score > beta) {
				return beta;
			}
			if (score > alpha) {
				alpha = score;
			}
		}

		entry.valid = true;
		entry.hash = hash;
		entry.score = alpha;

		return alpha;
	}

	int eval() { return advantage(currentColor) - advantage(opposite(currentColor)); }

	int advantage(Color color) {
		int total = 0;
		for (int column = 0; column < 7; ++column) {
			int count = 0;
			for (int row = height[column] - 1; row >= 0 && grid[column][row] == color; --row) {
				++count;
			}

			total += count;
		}

		return total;
	}

	bool is_win(Color color, int column, int row) {
		std::pair<int, int> deltas[] = {
		    {0, 1}, {0, -1}, {1, 0}, {-1, 0}, {1, 1}, {1, -1}, {-1, 1}, {-1, -1},
		};

		for (auto const &[deltaX, deltaY] : deltas) {
			for (int offset = 0; offset < 4; ++offset) {
				auto const offsetColumn = column + deltaY * offset;
				auto const offsetRow = row + deltaX * offset;
				if (offsetColumn < 0 || offsetColumn >= 7 || offsetRow < 0 || offsetRow >= 6 || grid[offsetColumn][offsetRow] != color) {
					goto next;
				}
			}
			return true;
		next:
			continue;
		}

		return false;
	}

	std::size_t state_hash() {
		std::size_t hash = 0;
		for (int column = 0; column < 7; ++column) {
			for (int row = 5; row >= 0; --row) {
				hash = hash * 3 + static_cast<std::underlying_type_t<Color>>(grid[column][row]);
			}
		}
		return hash;
	}
};

int
main(int argc, char const **argv) {
	char turn;
	std::cin >> turn;

	Board board{};

	try {
		switch (turn) {
			while (true) {
			case 'f': {
				int move = board.get_best_move();
				std::cout << move << std::endl;
				board.drop(move);
				[[fallthrough]];
			}
			case 's': {
				int move;
				std::cin >> move;
				board.drop(move);
			}
			}
		}
	} catch (std::exception const ex) { std::cerr << ex.what() << std::endl; }
}

e ← ⍸⍣¯1

cycloid ← {
  R ← 1⌷⍺
  r ← 2⌷⍺
  d ← 3⌷⍺
  x ← ((R - r) × (2 ○ ⍵)) + d × 2 ○ ⍵ × (R - r) ÷ r
  y ← ((R - r) × (1 ○ ⍵)) - d × 1 ○ ⍵ × (R - r) ÷ r
  x y
}

plot ← {
  bin ← (⍳ ⍺ ⍺) ∊ ⌈ (⍺ ÷ 2) + ⍵
  (⊂⍺ ⍺ ⍴ 1 + bin) ⌷ ' o'
}

draw ← {
  size ← 1⌷⍺
  resolution ← 2⌷⍺
  R ← 1⌷⍵
  r ← 2⌷⍵
  d ← 3⌷⍵
  cycle ← | 2 × resolution × (R ∧ r) ÷ R
  size plot ↓⍉↑ ((size ÷ 2) ÷ R + d + |r) × ⍵ cycloid ○(⍳ cycle) ÷ resolution
}

⎕ ← (50 50) draw (8 ¯2 0.3)

package main

import (
	"cmp"
	"image/color"
	"log"
	"math"
	"math/rand"
	"slices"
	"strconv"

	"golang.org/x/image/font"
	"golang.org/x/image/font/opentype"

	"github.com/hajimehoshi/ebiten/v2"
	"github.com/hajimehoshi/ebiten/v2/examples/resources/fonts"
	"github.com/hajimehoshi/ebiten/v2/inpututil"
	"github.com/hajimehoshi/ebiten/v2/text"
)

var (
	tileImage *ebiten.Image
	tileFont  font.Face
)

const (
	fontSize              = 48
	innerTileSize         = 90
	tileSize              = 100
	tileSpeed     float64 = 1

	tilePadding = (tileSize - innerTileSize) / 2
)

type Direction int

const (
	DirectionNone Direction = iota
	DirectionLeft
	DirectionRight
	DirectionUp
	DirectionDown
)

type Tile struct {
	screenPos struct{ x, y float64 }
	value     int
	hasMerged bool
}

type Game struct {
	tiles  [4][4]Tile
	isLoss bool

	pressedKeys []ebiten.Key
}

func init() {
	ttf, err := opentype.Parse(fonts.MPlus1pRegular_ttf)

	if err != nil {
		log.Fatal(err)
	}

	tileFont, err = opentype.NewFace(ttf, &opentype.FaceOptions{
		DPI:     72,
		Size:    fontSize,
		Hinting: font.HintingVertical,
	})

	if err != nil {
		log.Fatal(err)
	}

	tileImage = ebiten.NewImage(innerTileSize, innerTileSize)
}

func (g *Game) updateLoss() {
	copy := *g
	g.isLoss = !(copy.stepTiles(DirectionLeft) ||
		copy.stepTiles(DirectionRight) ||
		copy.stepTiles(DirectionUp) ||
		copy.stepTiles(DirectionDown))
}

func (g *Game) IsFull() bool {
	for _, row := range g.tiles {
		for _, tile := range row {
			if tile.value == 0 {
				return false
			}
		}
	}
	return true
}

func (g *Game) SpawnTile() {
	if g.IsFull() {
		g.isLoss = true
		return
	}

	x := rand.Intn(len(g.tiles))
	y := rand.Intn(len(g.tiles[x]))

	for g.tiles[y][x].value != 0 {
		x = rand.Intn(len(g.tiles))
		y = rand.Intn(len(g.tiles[x]))
	}
	if rand.Intn(10) == 0 {
		g.tiles[y][x].value = 4
	} else {
		g.tiles[y][x].value = 2
	}
}

func (g *Game) stepTiles(direction Direction) (hasChanged bool) {
	switch direction {
	case DirectionLeft:
		for y := range g.tiles {
			for x := 1; x < len(g.tiles[y]); x++ {
				if g.tiles[y][x-1].value == 0 {
					g.tiles[y][x-1] = g.tiles[y][x]
					g.tiles[y][x] = Tile{}
					hasChanged = true
				} else if g.tiles[y][x-1].value == g.tiles[y][x].value && !g.tiles[y][x-1].hasMerged && !g.tiles[y][x].hasMerged {
					g.tiles[y][x-1].value *= 2
					g.tiles[y][x-1].hasMerged = true
					g.tiles[y][x] = Tile{}
					hasChanged = true
				}
			}
		}
	case DirectionRight:
		for y := range g.tiles {
			for x := len(g.tiles[y]) - 2; x >= 0; x-- {
				if g.tiles[y][x+1].value == 0 {
					g.tiles[y][x+1] = g.tiles[y][x]
					g.tiles[y][x] = Tile{}
					hasChanged = true
				} else if g.tiles[y][x+1].value == g.tiles[y][x].value && !g.tiles[y][x+1].hasMerged && !g.tiles[y][x].hasMerged {
					g.tiles[y][x+1].value *= 2
					g.tiles[y][x+1].hasMerged = true
					g.tiles[y][x] = Tile{}
					hasChanged = true
				}
			}
		}
	case DirectionUp:
		for y := 1; y < len(g.tiles); y++ {
			for x := range g.tiles[y] {
				if g.tiles[y-1][x].value == 0 {
					g.tiles[y-1][x] = g.tiles[y][x]
					g.tiles[y][x] = Tile{}
					hasChanged = true
				} else if g.tiles[y-1][x].value == g.tiles[y][x].value && !g.tiles[y-1][x].hasMerged && !g.tiles[y][x].hasMerged {
					g.tiles[y-1][x].value *= 2
					g.tiles[y-1][x].hasMerged = true
					g.tiles[y][x] = Tile{}
					hasChanged = true
				}
			}
		}
	case DirectionDown:
		for y := len(g.tiles) - 2; y >= 0; y-- {
			for x := range g.tiles[y] {
				if g.tiles[y+1][x].value == 0 {
					g.tiles[y+1][x] = g.tiles[y][x]
					g.tiles[y][x] = Tile{}
					hasChanged = true
				} else if g.tiles[y+1][x].value == g.tiles[y][x].value && !g.tiles[y+1][x].hasMerged && !g.tiles[y][x].hasMerged {
					g.tiles[y+1][x].value *= 2
					g.tiles[y+1][x].hasMerged = true
					g.tiles[y][x] = Tile{}
					hasChanged = true
				}
			}
		}
	}

	return
}

func (g *Game) MoveTiles(direction Direction) {
	for y := range g.tiles {
		for x := range g.tiles[y] {
			g.tiles[y][x].hasMerged = false
		}
	}

	for {
		old := g.tiles
		g.stepTiles(direction)
		if slices.Equal(g.tiles[:], old[:]) {
			break
		}
	}
}

func (g *Game) Animate() {
	for y, row := range g.tiles {
		for x := range row {
			var targetX = float64(x*tileSize + tilePadding)
			var targetY = float64(y*tileSize + tilePadding)
			g.tiles[y][x].screenPos.x += float64(cmp.Compare(targetX, g.tiles[y][x].screenPos.x)) * tileSpeed
			g.tiles[y][x].screenPos.y += float64(cmp.Compare(targetY, g.tiles[y][x].screenPos.y)) * tileSpeed
		}
	}
}

func (g *Game) Update() error {
	g.Animate()
	g.pressedKeys = inpututil.AppendJustPressedKeys(g.pressedKeys[:0])

	var direction Direction = DirectionNone

Loop:
	for _, key := range g.pressedKeys {
		switch key {
		case ebiten.KeyLeft:
			direction = DirectionLeft
			break Loop

		case ebiten.KeyRight:
			direction = DirectionRight
			break Loop

		case ebiten.KeyUp:
			direction = DirectionUp
			break Loop

		case ebiten.KeyDown:
			direction = DirectionDown
			break Loop
		}
	}

	if direction != DirectionNone {
		old := g.tiles
		g.MoveTiles(direction)
		if !slices.Equal(g.tiles[:], old[:]) {
			g.SpawnTile()
		}
		g.updateLoss()
	}

	return nil
}

func (g *Game) Draw(screen *ebiten.Image) {
	for _, row := range g.tiles {
		for _, tile := range row {
			drawOptions := ebiten.DrawImageOptions{}
			drawOptions.GeoM.Translate(tile.screenPos.x, tile.screenPos.y)

			tileImage.Fill(color.RGBA{R: uint8(50 * math.Log2(float64(tile.value))), G: 0, B: 0, A: 255})

			if tile.value != 0 {
				str := strconv.Itoa(tile.value)
				textBound := text.BoundString(tileFont, str)

				text.Draw(
					tileImage,
					str,
					tileFont,
					innerTileSize/2-textBound.Dx()/2,
					innerTileSize/2+textBound.Dy()/2,
					color.White,
				)
			}

			screen.DrawImage(tileImage, &drawOptions)
		}
	}

	if g.isLoss {
		str := "You lost"
		textBound := text.BoundString(tileFont, str)
		text.Draw(
			screen,
			str,
			tileFont,
			screen.Bounds().Dx()/2-textBound.Dx()/2,
			screen.Bounds().Dy()/2+textBound.Dy()/2,
			color.White,
		)
	}
}

func (g *Game) Layout(outsideWidth, outsideHeight int) (screenWidth, screenHeight int) {
	return 4 * tileSize, 4 * tileSize
}

func main() {
	ebiten.SetWindowSize(640, 640)
	ebiten.SetWindowTitle("Hello, World!")

	game := Game{}
	game.SpawnTile()

	if err := ebiten.RunGame(&game); err != nil {
		log.Fatal(err)
	}
}

import { TextEncoder } from "util";
import { AstNode, AstType } from "./parser.js";

function exhaustive(x: never): never {
    throw new Error(`Expected all cases to be handled, but got ${x} instead`);
}

function encode_string(str: string): [number, string] {
    const encoder = new TextEncoder();
    const enc = [...encoder.encode(str)];
    const enc_str = enc.map(code => {
        let hex = code.toString(16)
        if (hex.length === 1) { hex = '0' + hex; }
        return '\\' + hex;
    }).join('');
    return [enc.length + 1, enc_str + '\\00'];
}

function varName(name: string) {
    return `@var_${name}`;
}

function astEqual(a: AstNode['value'], b: AstNode['value']) {
    if (typeof a !== typeof b) { return false; }
    if (!(a instanceof Array && b instanceof Array)) { return a === b; }
    if (a.length !== b.length) { return false; }

    for (let i = 0; i < a.length; i++) {
        if (a[i].type !== b[i].type) {
            return false
        }

        return astEqual(a[i].value, b[i].value);
    }

    return true;
}

class TemporaryGenerator {
    #id: number = 1;
    #template: (id: number) => string
    constructor(template: string | ((id: number) => string)) {
        if (typeof template === 'string') {
            this.#template = id => template + id.toString();
        }
        else {
            this.#template = template;
        }
    }
    next() {
        return this.#template(this.#id++);
    }
}

function definePush(name: string, type: string) {
    return `
define void ${name}(${type} %value) {
entry:
  %stack_size = load i64, i64* @stack_size
  %stack_capacity0 = load i64, i64* @stack_capacity
  %cond = icmp eq i64 %stack_size, %stack_capacity0
  br i1 %cond, label %increase_capacity, label %set_value
  
increase_capacity:
  %buffer0 = load ptr, ptr @stack
  %new_capacity = shl i64 %stack_capacity0, 1
  %new_buffer_size = mul i64 %new_capacity, 8
  %new_buffer = call ptr @realloc(ptr %buffer0, i64 %new_buffer_size)
  store ptr %new_buffer, ptr @stack
  store i64 %new_capacity, i64* @stack_capacity
  br label %set_value

set_value:
  %buffer1 = load ptr, ptr @stack
  %top = getelementptr %union.FalseValue, %union.FalseValue* %buffer1, i64 %stack_size
  %cast = bitcast %union.FalseValue* %top to ${type}*
  store ${type} %value, ${type}* %cast
  %new_size = add i64 %stack_size, 1
  store i64 %new_size, i64* @stack_size
  ret void
}`
}

function definePop(name: string, type: string) {
    return `
define ${type} ${name}() {
entry:
  %stack_size = load i64, i64* @stack_size
  %new_size = sub i64 %stack_size, 1
  store i64 %new_size, i64* @stack_size
  %buffer = load ptr, ptr @stack
  %top = getelementptr %union.FalseValue, ptr %buffer, i64 %new_size
  %cast = bitcast %union.FalseValue* %top to ${type}*
  %value = load ${type}, ptr %cast
  ret ${type} %value
}`
}

function definePeek(name: string, type: string) {
    return `
define ${type} ${name}(i32 %depth) {
entry:
  %stack_size = load i64, i64* @stack_size
  %0 = sext i32 %depth to i64
  %1 = sub i64 %stack_size, %0
  %peek_size = sub i64 %1, 1
  %buffer = load ptr, ptr @stack
  %top = getelementptr %union.FalseValue, ptr %buffer, i64 %peek_size
  %cast = bitcast %union.FalseValue* %top to ${type}*
  %value = load ${type}, ptr %cast
  ret ${type} %value
}`
}

const head = `
@.fmt = private unnamed_addr constant [3 x i8] c"%s\\00"
@.num = private unnamed_addr constant [3 x i8] c"%d\\00"

declare ptr @malloc(i64)
declare ptr @realloc(ptr, i64)
declare void @free(ptr)
declare i32 @putchar(i32)
declare i32 @getchar()
declare i32 @printf(i8*, ...)

%union.FalseValue = type { [8 x i8] }

@stack = global %union.FalseValue* null
@stack_size = global i64 0
@stack_capacity = global i64 0

define void @stack_init() {
entry:
  store i64 16, i64* @stack_capacity
  %stack_capacity = load i64, i64* @stack_capacity
  %buffer_size = mul i64 %stack_capacity, 8
  %buffer = call ptr @malloc(i64 %buffer_size)
  store i64 0, i64* @stack_size
  store ptr %buffer, %union.FalseValue** @stack
  ret void
}

${definePush('@stack_push_any', '%union.FalseValue')}
${definePush('@stack_push_int', 'i32')}
${definePush('@stack_push_ref', '%union.FalseValue*')}
${definePush('@stack_push_quote', 'void()*')}

${definePop('@stack_pop_any', '%union.FalseValue')}
${definePop('@stack_pop_int', 'i32')}
${definePop('@stack_pop_ref', '%union.FalseValue*')}
${definePop('@stack_pop_quote', 'void()*')}

${definePeek('@stack_peek_any', '%union.FalseValue')}
${definePeek('@stack_peek_int', 'i32')}
${definePeek('@stack_peek_ref', '%union.FalseValue*')}
${definePeek('@stack_peek_quote', 'void()*')}

define void @stack_free() {
entry:
  %buffer = load ptr, ptr @stack
  call void @free(ptr %buffer)
  ret void
}

${[...'abcdefghijklmnopqrstuvwxyz']
        .map(a => `${varName(a)} = private global %union.FalseValue { [8 x i8] zeroinitializer }`)
        .join('\n')}
`

class Compiler {

    #functions: [nodes: AstNode[], name: string, compiled: string][] = []
    #strings: Map<string, string> = new Map();

    #compile(nodes: AstNode[]): string {
        const temporaryGenerator = new TemporaryGenerator('%t');
        const labelGenerator = new TemporaryGenerator('label_');

        const instructions: string[] = [];

        function basicOp(op: string): void {
            const second = temporaryGenerator.next();
            const first = temporaryGenerator.next();
            const result = temporaryGenerator.next();
            instructions.push(
                `${second} = call i32 @stack_pop_int()`,
                `${first} = call i32 @stack_pop_int()`,
                `${result} = ${op} i32 ${first}, ${second}`,
                `call void @stack_push_int(i32 ${result})`);
        }

        function cmp(op: string): void {
            const second = temporaryGenerator.next();
            const first = temporaryGenerator.next();
            const result = temporaryGenerator.next();
            const cast = temporaryGenerator.next();
            instructions.push(
                `${second} = call i32 @stack_pop_int()`,
                `${first} = call i32 @stack_pop_int()`,
                `${result} = icmp ${op} i32 ${first}, ${second}`,
                `${cast} = sext i1 ${result} to i32`,
                `call void @stack_push_int(i32 ${cast})`);
        }

        for (const node of nodes) {
            switch (node.type) {
                case AstType.Variable:
                    instructions.push(`call void @stack_push_ref(%union.FalseValue* ${varName(node.value)})`);
                    break;
                case AstType.String: {
                    const strName = this.#getConstString(node.value);
                    instructions.push(`call i32 @printf(i8* @.fmt, i8* ${strName})`);
                    break;
                }

                case AstType.Integer:
                    instructions.push(`call void @stack_push_int(i32 ${node.value})`);
                    break;
                case AstType.Quote: {
                    const name = this.#getFunction(node.value);
                    instructions.push(`call void @stack_push_quote(void()* ${name})`);
                    break;
                }

                case AstType.GetVar: {
                    const varRef = temporaryGenerator.next();
                    const value = temporaryGenerator.next();
                    instructions.push(
                        `${varRef} = call %union.FalseValue* @stack_pop_ref()`,
                        `${value} = load %union.FalseValue, %union.FalseValue* ${varRef}`,
                        `call void @stack_push_any(%union.FalseValue ${value})`);
                    break;
                }

                case AstType.SetVar: {
                    const varRef = temporaryGenerator.next();
                    const value = temporaryGenerator.next();
                    instructions.push(
                        `${varRef} = call %union.FalseValue* @stack_pop_ref()`,
                        `${value} = call %union.FalseValue @stack_pop_any()`,
                        `store %union.FalseValue ${value}, %union.FalseValue* ${varRef}`);
                    break;
                }

                case AstType.Dup: {
                    const value = temporaryGenerator.next();
                    instructions.push(
                        `${value} = call %union.FalseValue @stack_peek_any(i32 0)`,
                        `call void @stack_push_any(%union.FalseValue ${value})`);
                    break;
                }

                case AstType.Discard:
                    instructions.push(`call %union.FalseValue @stack_pop_any()`);
                    break;
                case AstType.Swap: {
                    const first = temporaryGenerator.next();
                    const second = temporaryGenerator.next();
                    instructions.push(
                        `${first} = call %union.FalseValue @stack_pop_any()`,
                        `${second} = call %union.FalseValue @stack_pop_any()`,
                        `call void @stack_push_any(%union.FalseValue ${first})`,
                        `call void @stack_push_any(%union.FalseValue ${second})`);
                    break;
                }

                case AstType.Rotate: {
                    const first = temporaryGenerator.next();
                    const second = temporaryGenerator.next();
                    const third = temporaryGenerator.next();
                    instructions.push(
                        `${first} = call %union.FalseValue @stack_pop_any()`,
                        `${second} = call %union.FalseValue @stack_pop_any()`,
                        `${third} = call %union.FalseValue @stack_pop_any()`,
                        `call void @stack_push_any(%union.FalseValue ${second})`,
                        `call void @stack_push_any(%union.FalseValue ${first})`,
                        `call void @stack_push_any(%union.FalseValue ${third})`);
                    break;
                }

                case AstType.Take: {
                    const depth = temporaryGenerator.next();
                    const value = temporaryGenerator.next();
                    instructions.push(
                        `${depth} = call i32 @stack_pop_int()`,
                        `${value} = call %union.FalseValue @stack_peek_any(i32 ${depth})`,
                        `call void @stack_push_any(%union.FalseValue ${value})`);
                    break;
                }

                case AstType.Plus: basicOp('add'); break;
                case AstType.Minus: basicOp('sub'); break;
                case AstType.Mul: basicOp('mul'); break;
                case AstType.Div: basicOp('sdiv'); break;
                case AstType.Negate: {
                    const value = temporaryGenerator.next();
                    const temp = temporaryGenerator.next();
                    instructions.push(
                        `${value} = call i32 @stack_pop_int()`,
                        `${temp} = sub i32 0, ${value}`,
                        `call void @stack_push_int(i32 ${temp})`);
                    break;
                }

                case AstType.BitAnd: basicOp('and'); break;
                case AstType.BitOr: basicOp('or'); break;
                case AstType.BitInvert: {
                    const value = temporaryGenerator.next();
                    const temp = temporaryGenerator.next();
                    instructions.push(
                        `${value} = call i32 @stack_pop_int()`,
                        `${temp} = xor i32 -1, ${value}`,
                        `call void @stack_push_int(i32 ${temp})`);
                    break;
                }

                case AstType.Equal: cmp('eq'); break;
                case AstType.GreaterThan: cmp('sgt'); break;
                case AstType.Execute: {
                    const value = temporaryGenerator.next();
                    instructions.push(
                        `${value} = call void()* @stack_pop_quote()`,
                        `call void ${value}()`);
                    break;
                }

                case AstType.ExecuteIf: {
                    const iftrue = labelGenerator.next();
                    const iffalse = labelGenerator.next();
                    const quote = temporaryGenerator.next();
                    const value = temporaryGenerator.next();
                    const cond = temporaryGenerator.next();

                    instructions.push(
                        `${quote} = call void()* @stack_pop_quote()`,
                        `${value} = call i32 @stack_pop_int()`,
                        `${cond} = icmp ne i32 ${value}, 0`,
                        `br i1 ${cond}, label %${iftrue}, label %${iffalse}`,
                        `${iftrue}:`,
                        `call void ${quote}()`,
                        `br label %${iffalse}`,
                        `${iffalse}:`);
                    break;
                }

                case AstType.While: {
                    const loop = labelGenerator.next();
                    const iftrue = labelGenerator.next();
                    const iffalse = labelGenerator.next();
                    const body = temporaryGenerator.next();
                    const cond_quote = temporaryGenerator.next();
                    const value = temporaryGenerator.next();
                    const cond = temporaryGenerator.next();

                    instructions.push(
                        `${body} = call void()* @stack_pop_quote()`,
                        `${cond_quote} = call void()* @stack_pop_quote()`,
                        `br label %${loop}`,
                        `${loop}:`,
                        `call void ${cond_quote}()`,
                        `${value} = call i32 @stack_pop_int()`,
                        `${cond} = icmp ne i32 ${value}, 0`,
                        `br i1 ${cond}, label %${iftrue}, label %${iffalse}`,
                        `${iftrue}:`,
                        `call void ${body}()`,
                        `br label %${loop}`,
                        `${iffalse}:`);
                    break;
                }

                case AstType.Getc: {
                    const temp = temporaryGenerator.next();
                    instructions.push(
                        `${temp} = call i32 @getchar()`,
                        `call void @stack_push_int(i32 ${temp})`);
                    break;
                }

                case AstType.Putc: {
                    const temp = temporaryGenerator.next();
                    instructions.push(
                        `${temp} = call i32 @stack_pop_int()`,
                        `call i32 @putchar(i32 ${temp})`);
                    break;
                }

                case AstType.PrintInt: {
                    const temp = temporaryGenerator.next();
                    instructions.push(
                        `${temp} = call i32 @stack_pop_int()`,
                        `call i32 @printf(i8* @.num, i32 ${temp})`);
                    break;
                }

                default:
                    exhaustive(node);
            }
        }
        return instructions.join('\n');
    }

    compile(ast: AstNode[]) {
        const topLevel = this.#compile(ast);

        const strings = [...this.#strings.entries()]
            .map(([str, name]) => {
                const [len, enc] = encode_string(str);
                return `${name} = private unnamed_addr constant [${len} x i8] c"${enc}"`
            });

        return head + [
            ...strings,
            ...this.#functions.map(x => x[2]),
            'define i32 @main() {',
            'call void @stack_init()',
            topLevel,
            'call void @stack_free()',
            'ret i32 0',
            '}',
        ].join('\n');
    }

    #lambdaNameGenerator = new TemporaryGenerator('@lambda_');
    #stringNameGenerator = new TemporaryGenerator('@str_');

    #getFunction(nodes: AstNode[]) {
        const name = this.#functions.find(([value]) => astEqual(nodes, value))?.[1];
        if (name) {
            return name;
        }
        else {
            const name = this.#lambdaNameGenerator.next();
            const compiled = `define void ${name}() {\nentry:\n${this.#compile(nodes)}\nret void\n}`;
            this.#functions.push([nodes, name, compiled]);
            return name;
        }
    }

    #getConstString(str: string) {
        const name = this.#strings.get(str);
        if (name) {
            return name;
        }
        else {
            const name = this.#stringNameGenerator.next();
            this.#strings.set(str, name);
            return name;
        }
    }
}

export function compile(source: AstNode[]): string {
    return new Compiler().compile(source);
}

#!/usr/bin/env node

// FALSE -> LLVM IR Compiler
// Requirements:
//  - Node.js
//  - Typescript Compiler
//  - LLC or equivalent (something to compile LLVM IR)

import { readFile, writeFile } from "fs/promises";
import { compile } from "./compiler.js";
import { parse } from "./parser.js";

async function main() {
	const filename = process.argv[2];
	if (!filename) {
		console.error('Filename required');
		process.exit(1);
	}

	const source = await readFile(filename, 'utf-8');
	const outFile = process.argv[3] ?? filename.replace(/\..+$/, '.ll');

	const ast = parse(source);
	console.info('Parsed AST');
	const IR = compile(ast);
	await writeFile(outFile, IR);
	console.info('Compiled to ' + outFile)
}

await main();

import { Token, TokenType, Tokenizer } from "./tokenizer.js"

export enum AstType {
	Variable,
	String,
	Integer, // Including chars such as 'A
	Quote,
	GetVar,
	SetVar,
	Dup,
	Discard,
	Swap,
	Rotate,
	Take,
	Plus,
	Minus,
	Mul,
	Div,
	Negate,
	BitAnd,
	BitOr,
	BitInvert,
	Equal,
	GreaterThan,
	Execute,
	ExecuteIf,
	While,
	Getc,
	Putc,
	PrintInt,
}

type ValueAst =
	| { type: AstType.Variable, value: string }
	| { type: AstType.String, value: string }
	| { type: AstType.Integer, value: number }
	| { type: AstType.Quote, value: AstNode[] }

type NonValueAst = { type: Exclude<AstType, ValueAst['type']>, value: undefined }

export type AstNode = ValueAst | NonValueAst

class Parser {
	#tokenizer: Iterator<Token>
	#currentToken: Token | null = null

	constructor(tokenizer: Iterator<Token>) {
		this.#tokenizer = tokenizer;
		this.#next();
	}

	parseStatements(): AstNode[] {
		const statements: AstNode[] = [];

		const _this = this;
		function instr<const T extends ValueAst>(type: T['type'], value: T['value']): void;
		function instr<const T extends NonValueAst>(type: T['type']): void;
		function instr(type: any, value?: any): void {
			statements.push({ type, value });
			_this.#next();
		}

		loop:
		while (this.#currentToken) {
			switch (this.#currentToken.type) {
				case TokenType.Variable: instr(AstType.Variable, this.#currentToken.value); break;
				case TokenType.String: instr(AstType.String, this.#currentToken.value); break
				case TokenType.Integer: instr(AstType.Integer, this.#currentToken.value); break;
				case TokenType.OpenBracket: this.#next(); instr(AstType.Quote, this.parseStatements()); break;
				case TokenType.CloseBracket: break loop;
				case TokenType.GetVar: instr(AstType.GetVar); break;
				case TokenType.SetVar: instr(AstType.SetVar); break;
				case TokenType.Dup: instr(AstType.Dup); break;
				case TokenType.Discard: instr(AstType.Discard); break;
				case TokenType.Swap: instr(AstType.Swap); break;
				case TokenType.Rotate: instr(AstType.Rotate); break;
				case TokenType.Take: instr(AstType.Take); break;
				case TokenType.Plus: instr(AstType.Plus); break;
				case TokenType.Minus: instr(AstType.Minus); break;
				case TokenType.Mul: instr(AstType.Mul); break;
				case TokenType.Div: instr(AstType.Div); break;
				case TokenType.Negate: instr(AstType.Negate); break;
				case TokenType.BitAnd: instr(AstType.BitAnd); break;
				case TokenType.BitOr: instr(AstType.BitOr); break;
				case TokenType.BitInvert: instr(AstType.BitInvert); break;
				case TokenType.Equal: instr(AstType.Equal); break;
				case TokenType.GreaterThan: instr(AstType.GreaterThan); break;
				case TokenType.Execute: instr(AstType.Execute); break;
				case TokenType.ExecuteIf: instr(AstType.ExecuteIf); break;
				case TokenType.While: instr(AstType.While); break;
				case TokenType.Getc: instr(AstType.Getc); break;
				case TokenType.Putc: instr(AstType.Putc); break;
				case TokenType.PrintInt: instr(AstType.PrintInt); break;
				case TokenType.Flush: this.#next(); break; // no-op
				case TokenType.Asm:
					this.#next();
					// @ts-ignore https://github.com/Microsoft/TypeScript/issues/9998
					if (this.#currentToken.type === TokenType.Integer) {
						this.#next();
						throw new Error(`Assembly is not supported`);
					}
					else {
						throw new Error(`Syntax error: Expected a short`);
					}
			}
		}

		return statements;
	}

	#next() {
		const { value, done } = this.#tokenizer.next();
		this.#currentToken = done ? null : value;
	}
}

export function parse(source: string) {
	const tokenizer = new Tokenizer(source);
	const parser = new Parser(tokenizer);
	return parser.parseStatements();
}

export enum TokenType {
	Variable,
	String,
	Integer, // Including chars such as 'A
	OpenBracket,
	CloseBracket,
	GetVar,
	SetVar,
	Dup,
	Discard,
	Swap,
	Rotate,
	Take,
	Plus,
	Minus,
	Mul,
	Div,
	Negate,
	BitAnd,
	BitOr,
	BitInvert,
	Equal,
	GreaterThan,
	Execute,
	ExecuteIf,
	While,
	Getc,
	Putc,
	PrintInt,
	Flush,
	Asm,
}

type ValueToken =
	| { type: TokenType.Variable, value: string }
	| { type: TokenType.String, value: string }
	| { type: TokenType.Integer, value: number }

type NonValueToken = { type: Exclude<TokenType, ValueToken['type']> }

export type Token = ValueToken | NonValueToken

export class Tokenizer implements Iterable<Token>, Iterator<Token, null>{
	static readonly symbols: ReadonlyMap<string, NonValueToken> =
		new Map<string, NonValueToken>(([
			['[', TokenType.OpenBracket],
			[']', TokenType.CloseBracket],
			[';', TokenType.GetVar],
			[':', TokenType.SetVar],
			['$', TokenType.Dup],
			['%', TokenType.Discard],
			['\\', TokenType.Swap],
			['@', TokenType.Rotate],
			['O', TokenType.Take],
			['+', TokenType.Plus],
			['-', TokenType.Minus],
			['*', TokenType.Mul],
			['/', TokenType.Div],
			['_', TokenType.Negate],
			['&', TokenType.BitAnd],
			['|', TokenType.BitOr],
			['~', TokenType.BitInvert],
			['=', TokenType.Equal],
			['>', TokenType.GreaterThan],
			['!', TokenType.Execute],
			['?', TokenType.ExecuteIf],
			['#', TokenType.While],
			['^', TokenType.Getc],
			[',', TokenType.Putc],
			['.', TokenType.PrintInt],
			['B', TokenType.Flush],
			['`', TokenType.Asm],
		] as const).map(([sym, type]) => [sym, { type }]))

	#source: string;
	#pos: number;

	get #currentChar(): string { return this.#source[this.#pos]; }

	constructor(source: string) {
		this.#source = source;
		this.#pos = 0;
	}

	[Symbol.iterator](): Tokenizer { return this; }

	next(): IteratorResult<Token, null> {
		while (this.#pos < this.#source.length) {
			if (/\s/.test(this.#currentChar)) { ++this.#pos; continue; }
			if (this.#currentChar === '{') { this.#skipComment(); continue; }

			if (this.#currentChar === '\'') { return { value: this.#nextChar() }; }
			if (this.#currentChar === '"') { return { value: this.#nextString() }; }
			if ('0' <= this.#currentChar && this.#currentChar <= '9') { return { value: this.#nextNumber() }; }
			if ('a' <= this.#currentChar && this.#currentChar <= 'z') { return { value: this.#nextVariable() }; }

			const sym = Tokenizer.symbols.get(this.#currentChar);
			if (sym) {
				++this.#pos;
				return { value: sym };
			}

			throw new Error(`Invalid character: ${this.#currentChar}`);
		}
		return { value: null, done: true };
	}

	#nextVariable(): Token {
		const variable = this.#currentChar;
		++this.#pos;
		return {
			type: TokenType.Variable,
			value: variable
		};
	}

	#skipComment(): void {
		while (this.#pos < this.#source.length && this.#currentChar !== '}') {
			++this.#pos;
		}
		this.#eat('}', "Unclosed comment");
	}

	#nextNumber(): Token {
		const start = this.#pos;
		while ('0' <= this.#currentChar && this.#currentChar <= '9') {
			++this.#pos;
		}
		return {
			type: TokenType.Integer,
			value: parseInt(this.#source.substring(start, this.#pos))
		};
	}

	#nextChar(): Token {
		this.#eat('\'');
		if (this.#currentChar) {
			const value = this.#currentChar.charCodeAt(0);
			++this.#pos;
			return { type: TokenType.Integer, value };
		}
		else {
			throw new Error(`Expected a character`);
		}
	}

	#nextString(): Token {
		this.#eat('"');
		const start = this.#pos;
		while (this.#pos < this.#source.length && this.#currentChar !== '"') {
			++this.#pos;
		}
		const result = this.#source.substring(start, this.#pos);
		this.#eat('"');

		return {
			type: TokenType.String,
			value: result
		};
	}

	#eat(char: string, errorMessage?: string): void {
		if (this.#currentChar === char) {
			++this.#pos;
		}
		else {
			throw new Error(errorMessage ?? `Expected ${char}, got ${this.#currentChar} instead`);
		}
	}
}

1	entry=s=>{while(s!=(s=s.replace(/-?[1-9]+[-+/]-?[1-9]+/g,eval).replace(/ ( )/g,(_,x)=>x)));return s;}

// Any language can be used, it said
// Tôi đã sử dụng google dịch cho tất cả những điều này vì vậy nó có thể sai tất
// cả និយាយតាមត្រង់ ខ្ញុំភ្លេចថាខ្ញុំប្រើប៉ុន្មានភាសា

# include <stdio.h>
# include <stdlib.h>

// Мы определяем следующие макросы

# define ਜੇਕਰ if
# define kol while
# define para for
# define hāʻawi return
# define Ganzzahl int
# define 字 char
# define αμετάβλητο const
# define מצביע *
# define dimensione sizeof
# define 主 main

Ganzzahl entry(Ganzzahl מצביע senarai_bilangan, Ganzzahl bilangan_bilangan, Ganzzahl 밑);

// program <radix> <nums...>
Ganzzahl 主(Ganzzahl パラメター数, 字 αμετάβλητο מצביע מצביע パラメター) {
  Ganzzahl radix = atoi(パラメター[1]);
  Ganzzahl bilangan_bilangan = パラメター数 - 2;
  Ganzzahl מצביע nombres = malloc(bilangan_bilangan * dimensione(字));

  para(Ganzzahl i = 0; i < bilangan_bilangan; ++i) nombres[i] = atoi(パラメター[i + 2]);

  printf("%d", entry(nombres, bilangan_bilangan, radix));

  free(nombres);
  hāʻawi 0;
}

Ganzzahl entry(Ganzzahl מצביע senarai_bilangan, Ganzzahl bilangan_bilangan, Ganzzahl 밑) {
  ਜੇਕਰ(bilangan_bilangan == 1) { hāʻawi senarai_bilangan[0]; }

  Ganzzahl tapeke = 0;
  para(Ganzzahl i = 0; i < bilangan_bilangan; ++i) { tapeke += senarai_bilangan[i]; }

  Ganzzahl bilangan_bilangan_seterusnya = 0;
  kol(tapeke > 0) {
    senarai_bilangan[bilangan_bilangan_seterusnya] = tapeke % 밑;
    tapeke /= 밑;
    ++bilangan_bilangan_seterusnya;
  }

  para(Ganzzahl i = 0; i < bilangan_bilangan_seterusnya / 2; ++i) {
    Ganzzahl tmp = senarai_bilangan[i];
    senarai_bilangan[i] = senarai_bilangan[bilangan_bilangan_seterusnya - 1 - i];
    senarai_bilangan[bilangan_bilangan_seterusnya - 1 - i] = tmp;
  }

  hāʻawi entry(senarai_bilangan, bilangan_bilangan_seterusnya, 밑);
}

/*
Copyright (C) 2023
                   GNU GENERAL PUBLIC LICENSE
                       Version 3, 29 June 2007

 Copyright (C) 2007 Free Software Foundation, Inc. <https://fsf.org/>
 Everyone is permitted to copy and distribute verbatim copies
 of this license document, but changing it is not allowed.

                            Preamble

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    authors of the material; or

    e) Declining to grant rights under trademark law for use of some
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    material by anyone who conveys the material (or modified versions of
    it) with contractual assumptions of liability to the recipient, for
    any liability that these contractual assumptions directly impose on
    those licensors and authors.

  All other non-permissive additional terms are considered "further
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  If you add terms to a covered work in accord with this section, you
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  Additional terms, permissive or non-permissive, may be stated in the
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the above requirements apply either way.

  8. Termination.

  You may not propagate or modify a covered work except as expressly
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  9. Acceptance Not Required for Having Copies.

  You are not required to accept this License in order to receive or
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occurring solely as a consequence of using peer-to-peer transmission
to receive a copy likewise does not require acceptance.  However,
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  10. Automatic Licensing of Downstream Recipients.

  Each time you convey a covered work, the recipient automatically
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  You may not impose any further restrictions on the exercise of the
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  11. Patents.

  A "contributor" is a copyright holder who authorizes use under this
License of the Program or a work on which the Program is based.  The
work thus licensed is called the contributor's "contributor version".

  A contributor's "essential patent claims" are all patent claims
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  Each contributor grants you a non-exclusive, worldwide, royalty-free
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  In the following three paragraphs, a "patent license" is any express
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  If you convey a covered work, knowingly relying on a patent license,
and the Corresponding Source of the work is not available for anyone
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available, or (2) arrange to deprive yourself of the benefit of the
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  If, pursuant to or in connection with a single transaction or
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  A patent license is "discriminatory" if it does not include within
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or that patent license was granted, prior to 28 March 2007.

  Nothing in this License shall be construed as excluding or limiting
any implied license or other defenses to infringement that may
otherwise be available to you under applicable patent law.

  12. No Surrender of Others' Freedom.

  If conditions are imposed on you (whether by court order, agreement or
otherwise) that contradict the conditions of this License, they do not
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covered work so as to satisfy simultaneously your obligations under this
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not convey it at all.  For example, if you agree to terms that obligate you
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License would be to refrain entirely from conveying the Program.

  13. Use with the GNU Affero General Public License.

  Notwithstanding any other provision of this License, you have
permission to link or combine any covered work with a work licensed
under version 3 of the GNU Affero General Public License into a single
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but the special requirements of the GNU Affero General Public License,
section 13, concerning interaction through a network will apply to the
combination as such.

  14. Revised Versions of this License.

  The Free Software Foundation may publish revised and/or new versions of
the GNU General Public License from time to time.  Such new versions will
be similar in spirit to the present version, but may differ in detail to
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Public License "or any later version" applies to it, you have the
option of following the terms and conditions either of that numbered
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Foundation.  If the Program does not specify a version number of the
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  If the Program specifies that a proxy can decide which future
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later version.

  15. Disclaimer of Warranty.

  THERE IS NO WARRANTY FOR THE PROGRAM, TO THE EXTENT PERMITTED BY
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  If the disclaimer of warranty and limitation of liability provided
above cannot be given local legal effect according to their terms,
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Program, unless a warranty or assumption of liability accompanies a
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                     END OF TERMS AND CONDITIONS

            How to Apply These Terms to Your New Programs

  If you develop a new program, and you want it to be of the greatest
possible use to the public, the best way to achieve this is to make it
free software which everyone can redistribute and change under these terms.

  To do so, attach the following notices to the program.  It is safest
to attach them to the start of each source file to most effectively
state the exclusion of warranty; and each file should have at least
the "copyright" line and a pointer to where the full notice is found.

    <one line to give the program's name and a brief idea of what it does.>
    Copyright (C) <year>  <name of author>

    This program is free software: you can redistribute it and/or modify
    it under the terms of the GNU General Public License as published by
    the Free Software Foundation, either version 3 of the License, or
    (at your option) any later version.

    This program is distributed in the hope that it will be useful,
    but WITHOUT ANY WARRANTY; without even the implied warranty of
    MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the
    GNU General Public License for more details.

    You should have received a copy of the GNU General Public License
    along with this program.  If not, see <https://www.gnu.org/licenses/>.

Also add information on how to contact you by electronic and paper mail.

  If the program does terminal interaction, make it output a short
notice like this when it starts in an interactive mode:

    <program>  Copyright (C) <year>  <name of author>
    This program comes with ABSOLUTELY NO WARRANTY; for details type `show w'.
    This is free software, and you are welcome to redistribute it
    under certain conditions; type `show c' for details.

The hypothetical commands `show w' and `show c' should show the appropriate
parts of the General Public License.  Of course, your program's commands
might be different; for a GUI interface, you would use an "about box".

  You should also get your employer (if you work as a programmer) or school,
if any, to sign a "copyright disclaimer" for the program, if necessary.
For more information on this, and how to apply and follow the GNU GPL, see
<https://www.gnu.org/licenses/>.

  The GNU General Public License does not permit incorporating your program
into proprietary programs.  If your program is a subroutine library, you
may consider it more useful to permit linking proprietary applications with
the library.  If this is what you want to do, use the GNU Lesser General
Public License instead of this License.  But first, please read
<https://www.gnu.org/licenses/why-not-lgpl.html>.
 */

use std::ops::Rem;

trait ZZ<const MODULUS: u128> {
    fn zz(self) -> Option<()>;
}

impl<T, const MODULUS: u128> ZZ<MODULUS> for T
where
    T: Rem<u128>,
    T::Output: PartialEq<u128>,
{
    fn zz(self) -> Option<()> {
        if self % MODULUS == 0 {
            Some(())
        } else {
            None
        }
    }
}

fn main() {
    (1..=100)
        .map(|i| {
            ZZ::<15>::zz(i)
                .and(Some(Box::new(|| println!("FizzBuzz")) as Box::<dyn Fn()>))
                .or(ZZ::<3>::zz(i).and(Some(Box::new(|| println!("Fizz")))))
                .or(ZZ::<5>::zz(i).and(Some(Box::new(|| println!("Buzz")))))
                .unwrap_or(Box::new(move || println!("{}", i)))
        })
        .for_each(|x| x());
}

/**
 * Usage: abcout <file> [no. cells printed] [no. cells printed in debug]
 */

#define __STDC_WANT_LIB_EXT1__ 1

#include <stdbool.h>
#include <stddef.h>
#include <stdint.h>
#include <stdio.h>
#include <stdlib.h>
#include <string.h>

uint8_t const HALT_CONDITION[] = {0x00, 0x00, 0x00, 0x00, 0x7F, 0xFF};

int run(FILE *file, uint16_t result_limit, uint16_t debug_limit) {
  uint8_t cells[UINT16_MAX] = {0, 1};
  uint8_t instr[6];

  while (true) {
    size_t const read_bytes = fread(instr, sizeof(*instr), 6, file);
    if (read_bytes == 0) {
      break;
    }

    if (read_bytes != 6) {
      fprintf(stderr, "Misaligned ROM\n");
      return 1;
    }

    if (memcmp(HALT_CONDITION, instr, 6) == 0) {
      if (debug_limit) {
        printf("\n\tHALT\n");
      }
      break;
    }

    uint16_t const a = instr[0] * 256 + instr[1];
    uint16_t const b = instr[2] * 256 + instr[3];
    uint16_t const c = instr[4] * 256 + instr[5];

    cells[a] += cells[b];

    if (cells[a] < cells[b])
      fseek(file, c, SEEK_SET);

    if (debug_limit) {
      printf("\n\t%d %d %d\n", a, b, c);
      for (long i = 0; i != debug_limit; ++i)
        printf("%.2x ", cells[i]);
      putchar('\n');
    }
  }

  for (long i = 0; i != result_limit; ++i)
    printf("%.2x ", cells[i]);
  putchar('\n');

  return 0;
}

int main(int argc, char const **argv) {
  if (argc < 2) {
    fprintf(stderr, "Usage: abcout <file>");
    return 1;
  }

  char const *file_name = argv[1];
  uint16_t result_limit = 100;
  uint16_t debug_limit = 0;

  if (argc > 2)
    result_limit = atoi(argv[2]);

  if (argc > 3)
    debug_limit = atoi(argv[3]);

  FILE *file;
  if (fopen_s(&file, file_name, "rb")) {
    printf("Couldn't open %s\n", file_name);
    return 1;
  }
  printf("Running %s (showing first %d cells)\n", file_name, result_limit);
  run(file, result_limit, debug_limit);
  fclose(file);
}

% Pointfree implementation ;
entry IS fork [
    0 = tally first, tally second,
    0 = tally second, tally first,
    match EACH first, entry EACH rest,
    1 + min EACH entry [[first, rest second], [rest first, second], [rest first, rest second]]
];

#include <inttypes.h>

#define FLOOD for (size_t i = 0; i < w; ++i) {
#define FILL for (size_t j = 0; j < h; ++j) {
#define DRAIN }
#define DOWNPOUR while (rain(m, w, h));
#define M(i) m[(i)*h + j]

enum { W, A, G };

int rain(char *m, size_t w, size_t h) {
  int d = 0;
  FLOOD
  FILL int l = i > 0 && M(i - 1) != A;
  int r = i < w - 1 && M(i + 1) != A;
  if (M(i) == W && !(l && r)) { M(i) = A; d = 1; }
  DRAIN
  DRAIN
  return d;
}

unsigned entry(unsigned *const t, size_t w) {
  unsigned h = 0;
  FLOOD
  h ^= (h < t[i]) * (t[i] ^ h);
  DRAIN
  char m[w * h];
  FLOOD
  FILL M(i) = j < t[i] ? G : W;
  DRAIN
  DRAIN
  DOWNPOUR
  int c = 0;
  FLOOD
  FILL c += M(i) == W;
  DRAIN
  DRAIN
  return c;
}

#undef FLOOD
#undef FILL
#undef DRAIN
#undef DOWNPOUR
#undef M

module Entry where

import Data.Foldable (maximumBy)
import Data.Function (on)

entry :: String -> String -> String
entry a b | a == "" || b == "" = "" | otherwise = maximumBy (compare `on` length)  [map fst $ takeWhile (uncurry (==)) $ zip a b, entry (tail a) b, entry a (tail b)]

entry = lambda m, a, b: (f := lambda m, q, b: q[:-1] if (c := q[-2] if len(q) > 1 else a) == b else x if m[c][i := q.pop()] and i not in q and (x := f(m, q + [i, 0], b)) is not None else f(m, q + [i + 1], b) if i + 1 < len(m) else None)(m, [0], b)

#include <math.h>
#include <stdbool.h>
#include <stdio.h>
#include <stdlib.h>

#include "polydivide.h"

// Prints a double array terminated by INFINITY
void print_array(double const *a) {
  putchar('{');
  for (; !isinf(*a); ++a) { printf(" %.2f", *a); }
  printf(" }");
}

// Compares using Total Squared Error; passes if error < tolerance
bool test(double const *a, double const *b, double const *expected_q,
          double const *expected_r, double const tolerance) {

  printf("\nTEST: a = ");
  print_array(a);

  printf(", b = ");
  print_array(b);
  putchar('\n');

  double *r;
  double *q = entry(a, b, &r);

  bool success = true;

  double error = 0;
  for (double const *qi = q, *eqi = expected_q; !isinf(*eqi); ++qi, ++eqi) {
    double const residual = *qi - *eqi;
    error += residual * residual;
  }
  if (error < tolerance) {
    printf("Q SUCCESS (error: %f): Q = ", error);
    print_array(q);
    putchar('\n');
  } else {
    printf("Q FAILED (error: %f): \n  EXPECTED: ", error);
    print_array(expected_q);
    printf("\n  GOT: ");
    print_array(q);
    putchar('\n');
    success = false;
  }

  error = 0;
  for (double const *ri = r, *eri = expected_r; !isinf(*eri); ++ri, ++eri) {
    error += (*ri - *eri) * (*ri - *eri);
  }
  if (error < tolerance) {
    printf("R SUCCESS (error: %f): R = ", error);
    print_array(r);
    putchar('\n');
  } else {
    printf("R FAILED (error: %f): \n  EXPECTED: ", error);
    print_array(expected_r);
    printf("\n  GOT: ");
    print_array(r);
    putchar('\n');
    success = false;
  }

  free(r);
  free(q);

  return success;
}

struct test_case {
  double const *a;
  double const *b;
  double const *expected_q;
  double const *expected_r;
};

int main(int argc, char const *argv[]) {
  double const tolerance = .000000001;

  struct test_case const test_suite[] = {
      // Basic tests
      {(double const[]){-42, 0, -12, 1, INFINITY},
       (double const[]){-3, 1, INFINITY},
       (double const[]){-27, -9, 1, INFINITY},
       (double const[]){-123, INFINITY}},

      {(double const[]){-21, -5, 4, INFINITY},
       (double const[]){-3, 1, INFINITY}, (double const[]){7, 4, INFINITY},
       (double const[]){0, INFINITY}},

      {(double const[]){12, 30, 40, INFINITY},
       (double const[]){1, 3, 4, INFINITY}, (double const[]){10, INFINITY},
       (double const[]){2, 0, INFINITY}},

      // Testing a case where the remainder isn't degree 0
      {(double const[]){-13, 2, -9, 0, 4, 2, INFINITY},
       (double const[]){1, -2, 1, INFINITY},
       (double const[]){11, 14, 8, 2, INFINITY},
       (double const[]){-24, 10, INFINITY}},

      // Testing a case that actually gives fractions
      {(double const[]){0, 0, 0, 1, INFINITY},
       (double const[]){1, -2, 3, INFINITY},
       (double const[]){2.0 / 9.0, 1.0 / 3.0, INFINITY},
       (double const[]){-2.0 / 9.0, 1.0 / 9.0, INFINITY}},

      // Testing a numerator with a lower degree than the denominator
      {(double const[]){1, 2, INFINITY},
       (double const[]){-3, 1, 2, 1, INFINITY}, (double const[]){INFINITY},
       (double const[]){1, INFINITY}},

      // Testing empty numerator
      {(double const[]){INFINITY}, (double const[]){-3, 1, INFINITY},
       (double const[]){INFINITY}, (double const[]){INFINITY}}};

  int const num_tests = sizeof test_suite / sizeof *test_suite;
  int num_success = 0;

  for (int test_index = 0; test_index < num_tests; ++test_index) {
    struct test_case const test_case = test_suite[test_index];

    num_success += test(test_case.a, test_case.b, test_case.expected_q,
                        test_case.expected_r, tolerance);
  }

  printf("\n%d of %d tests passed\n", num_success, num_tests);

  return 0;
}

#ifndef POLYDIVIDE_H
#define POLYDIVIDE_H

#include <math.h>
#include <stdlib.h>
#include <string.h>

// Takes two polynomials a, b, ordered in order of increasing power, terminated
// by INFINITY and a pointer to a pre-allocated remainder polynomial r.
// Allocates memory to q and r
double *entry(double const *a, double const *b, double **r) {
  // We first need to find the end of the polynomial
  // This is because polynomial division starts at the highest power
  // This also lets us compute the length of the polynomials,
  // important because we to compute the length of the quotient
  // to allocate memory for it.
  double const *a_end = a, *b_end = b;

  while (!isinf(*a_end)) { ++a_end; }
  while (!isinf(*b_end)) { ++b_end; }

  // The number of coeffients (excludes INFINITY terminator)
  // This is one more than the degree of the polynomial
  size_t const a_len = a_end - a;
  size_t const b_len = b_end - b;

  // Handle the numerator having lower degree than denominator
  if (a_len < b_len) {
    double *const q = malloc(1 * sizeof *q);
    *q = INFINITY;

    // Just create a copy of the numerator as the remainder
    *r = malloc((a_len + 1) * sizeof **r);
    memcpy(*r, a, (a_len + 1) * sizeof **r);

    return q;
  }

  size_t const q_len = a_len - b_len + 1;

  double *const q = malloc((q_len + 1) * sizeof *q);
  double *q_end = q + q_len;

  // Terminate the quotient polynomial
  *q_end = INFINITY;
  --q_end;

  // Move back to the coefficient before INFINITY
  --a_end;
  --b_end;

  // temporary values for computation
  double *temps = malloc(b_len * sizeof *temps);
  double *const temps_end = temps + b_len - 1;
  memcpy(temps, a_end - b_len + 1, b_len * sizeof *temps);

  // a_end - a + 1 = number of coefficients left in a
  while (a_end - a + 1 >= b_len) {
    double const a_lead = *temps_end;
    double const b_lead = *b_end;

    double const lead_factor = a_lead / b_lead;

    *q_end = lead_factor;

    // Recalculate temporaries
    // Basically subtracting b * lead_factor from temps,
    // shifting over by one,
    // and then getting the next coefficient from a
    double *tptr;
    double const *bptr;
    for (tptr = temps_end, bptr = b_end; tptr != temps; --tptr, --bptr) {
      *tptr = *(tptr - 1) - lead_factor * *(bptr - 1);
    }

    // Last iteration
    // Since it's the last iteration, there are no more coefficients in a
    if (a_end - a + 1 == b_len) {
      break;
    }

    *temps = *(a_end - b_len);

    --a_end;
    --q_end;
  }

  // Temps now basically contains the remainder, just needs some touching up
  // meaning shifting it over by one and adding the INFINITY terminator
  memmove(temps, temps + 1, (b_len - 1) * sizeof *temps);
  *temps_end = INFINITY;

  *r = temps;
  return q;
}

#endif

def str_to_grid(g: str):
    return [*map(lambda l: [*map(lambda c: c == '#', l)], g.split('\n'))]

def fill_coord(g: str):
    return 

def grid_to_str(g: list[list[bool]]):
    return '\n'.join(map(lambda r: ''.join('#' if b else '.' for b in r), g))

def entry(grid: list[list[bool]], x: int, y: int):
    # Basic flood-fill algorithm;
    # if the cell is filled, add its adjacent cells to the to-be-filled list
    # repeat until no more cells are to be filled.

    queue = [(y, x)] # stored in row-major order

    while queue:
        (row, col) = queue.pop(0)
        if (0 <= row < len(grid)
        and 0 <= col < len(grid[row])
        and not grid[row][col]):
            grid[row][col] = True
            queue.append((row + 1, col))
            queue.append((row - 1, col))
            queue.append((row, col + 1))
            queue.append((row, col - 1))

    return grid

[0][0]#{ FALSE Polyglot because why not (Tested on TIO)
# All the [0][0]#{ are to create comments in FALSE
import sys

code = r'''
{ Get integer from stdin }
0^[$1_>]['0-\10*+^]#%
{ Store in a }
a:
{ Flag for primality }
a;1=b:
{ Loop from a to 2, if divisible then set flag }
a;[1-$1>][$$a;\/*a;=b;|b:]#
%
{ Print result (add one; -1 (not prime) => 0; 0 (prime) => 1) }
1b;+.
''' 
[0][0]#{

class Interpreter:
    class Variable:
        def __init__(self, name):
            self.name = name
    class Lambda:
        def __init__(self, code):
            self.code = code

    def __init__(self, code, vars = None, stack = None):
        self.code = code
        self.pos = 0

        self.vars = vars or dict()
        self.stack = stack or list()

        self.input = sys.stdin
        self.output = sys.stdout

    def set_input(self, inp):
        self.input = inp

    def set_output(self, out):
        self.output = out

    def run(self):
        while True:
            self.skip_whitespace()
            if self.current_char() == None:
                return
            elif self.current_char() == '{':
                self.skip_comment()
            elif self.current_char() == '\'':
                self.advance()
                self.stack.append(ord(self.current_char()))
                self.advance()
            elif self.current_char() == '$':
                self.stack.append(self.stack[-1])
                self.advance()
            elif self.current_char() == '%':
                self.stack.pop()
                self.advance()
            elif self.current_char() == '\\':
                self.swap()
                self.advance()
            elif self.current_char() == '@':
                self.rotate()
                self.advance()
            elif self.current_char() == 'ø':
                self.pick()
                self.advance()
            elif self.current_char() == '+':
                self.stack.append(self.stack.pop() + self.stack.pop())
                self.advance()
            elif self.current_char() == '-':
                a = self.stack.pop()
                self.stack.append(self.stack.pop() - a)
                self.advance()
            elif self.current_char() == '*':
                self.stack.append(self.stack.pop() * self.stack.pop())
                self.advance()
            elif self.current_char() == '/':
                q = self.stack.pop()
                self.stack.append(self.stack.pop() // q)
                self.advance()
            elif self.current_char() == '_':
                self.stack.append(-self.stack.pop())
                self.advance()
            elif self.current_char() == '&':            
                self.stack.append(self.stack.pop() & self.stack.pop()) 
                self.advance()
            elif self.current_char() == '|':            
                self.stack.append(self.stack.pop() | self.stack.pop()) 
                self.advance()
            elif self.current_char() == '~':            
                self.stack.append(~self.stack.pop())
                self.advance()
            elif self.current_char() == '>':         
                b = self.stack.pop()
                self.stack.append(-1 if self.stack.pop() > b else 0) 
                self.advance()
            elif self.current_char() == '=':         
                b = self.stack.pop()
                self.stack.append(-1 if self.stack.pop() == b else 0) 
                self.advance()
            elif self.current_char() == '[':         
                self.push_lambda()
            elif self.current_char() == '#':
                self.advance()
                self.while_loop()
            elif self.current_char().isdigit():
                self.push_num()
            elif self.current_char().isalpha():
                self.stack.append(__class__.Variable(self.current_char()))
                self.advance()
            elif self.current_char() == ':':
                var = self.stack.pop()
                self.vars[var.name] = self.stack.pop()
                self.advance()
            elif self.current_char() == ';':
                var = self.stack.pop()
                self.stack.append(self.vars[var.name])
                self.advance()
            elif self.current_char() == '^':
                ch = self.input.read(1)
                self.stack.append(ord(ch) if ch else -1)
                self.advance()
            elif self.current_char() == '.':
                self.output.write(str(self.stack.pop()))
                self.advance()
            else:
                raise Exception("Invalid character " + self.current_char())
    def push_lambda(self):
        self.advance()
        res = ''
        while self.current_char() != ']':
            res += self.current_char()
            self.advance()
        self.advance()
        self.stack.append(__class__.Lambda(res))

    def run_lambda(self, l):
        lambda_runner = Interpreter(l.code, self.vars, self.stack)
        lambda_runner.set_input(self.input)
        lambda_runner.set_output(self.output)
        lambda_runner.run()

    def while_loop(self):
        body = self.stack.pop()
        cond = self.stack.pop()
        while True:
            self.run_lambda(cond)
            if self.stack.pop() == 0:
                break
            else:
                self.run_lambda(body)

    def pick(self):
        i = self.stack.pop() + 1
        val = self.stack.pop(-i)
        self.stack.append(val)
    def rotate(self):
        a = self.stack.pop(0)
        self.stack.append(a)

    def swap(self):
        a = self.stack.pop()
        b = self.stack.pop()
        self.stack.append(a)
        self.stack.append(b)

    def push_num(self):
        res = 0

        while self.current_char() and self.current_char().isdigit():
            res = res * 10 + int(self.current_char())
            self.advance()

        self.stack.append(res)

    def skip_whitespace(self):
        while self.current_char() and self.current_char().isspace():
            self.advance()

    def skip_comment(self):
        while self.current_char() != '}':
            [0][0]#{
            self.advance()
        self.advance()

    def current_char(self):
        try:
            return self.code[self.pos]
        except:
            return None

    def advance(self):
        self.pos += 1

from io import StringIO

def entry(n):
    interpreter = Interpreter(code)
    inp = StringIO(str(n))
    out = StringIO()
    interpreter.set_input(inp)
    interpreter.set_output(out)
    interpreter.run()
    return out.getvalue() == '1'

[0][0]# If you're reading this you're a cool person :) }

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