491 lines
15 KiB
Python
491 lines
15 KiB
Python
# -*- coding: utf-8 -*-
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import pickle
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from .utils import Coord, Movement, Rotation, T_Spin, Phase
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from .tetromino import Tetromino, T_Tetrimino
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from .consts import (
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LINES,
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COLLUMNS,
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NEXT_PIECES,
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LOCK_DELAY,
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FALL_DELAY,
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AUTOREPEAT_DELAY,
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AUTOREPEAT_PERIOD,
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MATRIX_PIECE_COORD,
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)
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LINES_CLEAR_NAME = "LINES_CLEAR_NAME"
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CRYPT_KEY = 987943759387540938469837689379857347598347598379584857934579343
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class PieceContainer:
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def __init__(self):
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self.piece = None
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class HoldQueue(PieceContainer):
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pass
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class Matrix(list, PieceContainer):
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def __init__(self, lines, collumns):
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list.__init__(self)
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PieceContainer.__init__(self)
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self.lines = lines
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self.collumns = collumns
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self.ghost = None
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def reset(self):
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self.clear()
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for y in range(self.lines + 3):
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self.append_new_line()
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def append_new_line(self):
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self.append([None for x in range(self.collumns)])
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def cell_is_free(self, coord):
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return (
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0 <= coord.x < self.collumns and 0 <= coord.y and not self[coord.y][coord.x]
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)
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class NextQueue(PieceContainer):
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def __init__(self, nb_pieces):
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super().__init__()
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self.nb_pieces = nb_pieces
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self.pieces = []
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class Stats:
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SCORES = (
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{LINES_CLEAR_NAME: "", T_Spin.NONE: 0, T_Spin.MINI: 1, T_Spin.T_SPIN: 4},
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{LINES_CLEAR_NAME: "SINGLE", T_Spin.NONE: 1, T_Spin.MINI: 2, T_Spin.T_SPIN: 8},
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{LINES_CLEAR_NAME: "DOUBLE", T_Spin.NONE: 3, T_Spin.T_SPIN: 12},
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{LINES_CLEAR_NAME: "TRIPLE", T_Spin.NONE: 5, T_Spin.T_SPIN: 16},
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{LINES_CLEAR_NAME: "TETRIS", T_Spin.NONE: 8},
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)
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def _get_score(self):
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return self._score
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def _set_score(self, new_score):
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self._score = new_score
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if self._score > self.high_score:
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self.high_score = self._score
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score = property(_get_score, _set_score)
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def __init__(self):
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self._score = 0
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self.time = 0
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def new_game(self, level):
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self.level = level - 1
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self.score = 0
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self.lines_cleared = 0
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self.goal = 0
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self.time = 0
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self.combo = -1
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self.lock_delay = LOCK_DELAY
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self.fall_delay = FALL_DELAY
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def new_level(self):
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self.level += 1
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self.goal += 5 * self.level
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if self.level <= 20:
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self.fall_delay = pow(0.8 - ((self.level - 1) * 0.007), self.level - 1)
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if self.level > 15:
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self.lock_delay = 0.5 * pow(0.9, self.level - 15)
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def update_time(self):
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self.time += 1
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def pattern_phase(self, t_spin, lines_cleared):
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pattern_name = []
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pattern_score = 0
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combo_score = 0
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if t_spin:
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pattern_name.append(t_spin)
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if lines_cleared:
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pattern_name.append(self.SCORES[lines_cleared][LINES_CLEAR_NAME])
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self.combo += 1
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else:
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self.combo = -1
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if lines_cleared or t_spin:
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pattern_score = self.SCORES[lines_cleared][t_spin]
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self.goal -= pattern_score
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pattern_score *= 100 * self.level
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pattern_name = "\n".join(pattern_name)
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if self.combo >= 1:
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combo_score = (20 if lines_cleared == 1 else 50) * self.combo * self.level
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self.score += pattern_score + combo_score
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return pattern_name, pattern_score, self.combo, combo_score
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class TetrisLogic:
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LINES = LINES
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COLLUMNS = COLLUMNS
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NEXT_PIECES = NEXT_PIECES
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AUTOREPEAT_DELAY = AUTOREPEAT_DELAY
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AUTOREPEAT_PERIOD = AUTOREPEAT_PERIOD
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MATRIX_PIECE_COORD = MATRIX_PIECE_COORD
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def __init__(self, lines=LINES, collumns=COLLUMNS, next_pieces=NEXT_PIECES):
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self.stats = Stats()
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self.load_high_score()
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self.phase = Phase.STARTING
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self.held = HoldQueue()
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self.matrix = Matrix(lines, collumns)
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self.next = NextQueue(next_pieces)
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self.autorepeatable_actions = (self.move_left, self.move_right, self.soft_drop)
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self.pressed_actions = []
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def new_game(self, level=1):
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self.stats.new_game(level)
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self.pressed_actions = []
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self.auto_repeat = False
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self.matrix.reset()
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self.next.pieces = [Tetromino() for n in range(self.next.nb_pieces)]
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self.held.piece = None
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self.start(self.stats.update_time, 1)
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self.on_new_game(self.next.pieces)
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self.new_level()
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def on_new_game(self, next_pieces):
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pass
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def new_level(self):
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self.stats.new_level()
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self.on_new_level(self.stats.level)
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self.generation_phase()
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def on_new_level(self, level):
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pass
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def generation_phase(self):
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self.phase = Phase.GENERATION
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self.matrix.piece = self.next.pieces.pop(0)
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self.next.pieces.append(Tetromino())
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self.matrix.piece.coord = self.MATRIX_PIECE_COORD
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self.matrix.ghost = self.matrix.piece.ghost()
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self.on_generation_phase(
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self.matrix, self.matrix.piece, self.matrix.ghost, self.next.pieces
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)
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if not self.move(Movement.DOWN):
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self.game_over()
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else:
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self.restart(self.fall, self.stats.fall_delay)
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self.falling_phase()
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def on_generation_phase(self, matrix, falling_piece, ghost_piece, next_pieces):
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pass
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def falling_phase(self):
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self.phase = Phase.FALLING
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self.matrix.ghost.coord = self.matrix.piece.coord
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for ghost_mino, current_mino in zip(self.matrix.ghost, self.matrix.piece):
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ghost_mino.coord = current_mino.coord
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while self.space_to_move(
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self.matrix.ghost.coord + Movement.DOWN,
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(mino.coord for mino in self.matrix.ghost),
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):
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self.matrix.ghost.coord += Movement.DOWN
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self.on_falling_phase(self.matrix.piece, self.matrix.ghost)
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def on_falling_phase(self, falling_piece, ghost_piece):
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pass
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def fall(self):
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self.move(Movement.DOWN)
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def move(self, movement, rotated_coords=None, lock=True):
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potential_coord = self.matrix.piece.coord + movement
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if self.space_to_move(
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potential_coord,
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rotated_coords or (mino.coord for mino in self.matrix.piece),
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):
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self.matrix.piece.coord = potential_coord
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if rotated_coords:
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for mino, coord in zip(self.matrix.piece, rotated_coords):
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mino.coord = coord
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else:
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if movement != Movement.DOWN:
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self.matrix.piece.last_rotation_point = None
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if self.phase == Phase.LOCK:
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self.restart(self.pattern_phase, self.stats.lock_delay)
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self.falling_phase()
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return True
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else:
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if lock and self.phase != Phase.LOCK and movement == Movement.DOWN:
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self.lock_phase()
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return False
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def lock_phase(self):
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self.phase = Phase.LOCK
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self.on_lock_phase(self.matrix.piece)
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self.start(self.pattern_phase, self.stats.lock_delay)
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def on_lock_phase(self, locked_piece):
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pass
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def space_to_move(self, potential_coord, minoes_coord):
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return all(
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self.matrix.cell_is_free(potential_coord + mino_coord)
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for mino_coord in minoes_coord
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)
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def rotate(self, rotation):
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rotated_coords = tuple(
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Coord(rotation * mino.coord.y, -rotation * mino.coord.x)
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for mino in self.matrix.piece
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)
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for rotation_point, liberty_degree in enumerate(
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self.matrix.piece.SRS[rotation][self.matrix.piece.orientation], start=1
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):
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if self.move(liberty_degree, rotated_coords):
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self.matrix.piece.orientation = (
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self.matrix.piece.orientation + rotation
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) % 4
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self.matrix.piece.last_rotation_point = rotation_point
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return True
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else:
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return False
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def hold(self):
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if not self.matrix.piece.hold_enabled:
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return
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self.matrix.piece.hold_enabled = False
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self.stop(self.pattern_phase)
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self.stop(self.fall)
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self.matrix.piece, self.held.piece = self.held.piece, self.matrix.piece
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for mino, coord in zip(self.held.piece, self.held.piece.MINOES_COORDS):
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mino.coord = coord
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if self.matrix.piece:
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self.matrix.piece.coord = self.MATRIX_PIECE_COORD
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self.matrix.ghost = self.matrix.piece.ghost()
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self.on_hold(self.held.piece, self.matrix.piece, self.matrix.ghost)
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self.falling_phase()
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else:
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self.generation_phase()
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self.on_hold(self.held.piece, self.matrix.piece, self.matrix.ghost)
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def on_hold(self, held_piece, falling_piece, ghost_piece):
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pass
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def pattern_phase(self):
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self.phase = Phase.PATTERN
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self.matrix.piece.prelocked = False
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self.stop(self.pattern_phase)
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self.stop(self.fall)
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# Piece unlocked
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if self.space_to_move(
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self.matrix.piece.coord + Movement.DOWN,
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(mino.coord for mino in self.matrix.piece),
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):
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return
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# Game over
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if all(
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(mino.coord + self.matrix.piece.coord).y >= self.matrix.lines
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for mino in self.matrix.piece
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):
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self.game_over()
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return
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if self.pressed_actions:
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self.auto_repeat = False
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self.stop(self.repeat_action)
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for mino in self.matrix.piece:
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coord = mino.coord + self.matrix.piece.coord
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if coord.y <= self.matrix.lines + 3:
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self.matrix[coord.y][coord.x] = mino
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self.on_locked(self.matrix, self.matrix.piece)
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# T-Spin
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if (
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type(self.matrix.piece) == T_Tetrimino
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and self.matrix.piece.last_rotation_point is not None
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):
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a = self.is_t_slot(0)
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b = self.is_t_slot(1)
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c = self.is_t_slot(3)
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d = self.is_t_slot(2)
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if self.matrix.piece.last_rotation_point == 5 or (a and b and (c or d)):
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t_spin = T_Spin.T_SPIN
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elif c and d and (a or b):
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t_spin = T_Spin.MINI
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else:
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t_spin = T_Spin.NONE
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else:
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t_spin = T_Spin.NONE
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# Clear complete lines
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lines_cleared = 0
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for y, line in reversed(list(enumerate(self.matrix))):
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if all(mino for mino in line):
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lines_cleared += 1
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self.on_line_remove(self.matrix, y)
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self.matrix.pop(y)
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self.matrix.append_new_line()
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if lines_cleared:
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self.stats.lines_cleared += lines_cleared
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pattern_name, pattern_score, nb_combo, combo_score = self.stats.pattern_phase(
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t_spin, lines_cleared
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)
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self.on_pattern_phase(pattern_name, pattern_score, nb_combo, combo_score)
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if self.stats.goal <= 0:
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self.new_level()
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else:
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self.generation_phase()
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if self.pressed_actions:
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self.start(self.repeat_action, self.AUTOREPEAT_DELAY)
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def on_locked(self, matrix, locked_piece):
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pass
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def on_line_remove(self, matrix, y):
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pass
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def on_pattern_phase(self, pattern_name, pattern_score, nb_combo, combo_score):
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pass
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def move_left(self):
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self.move(Movement.LEFT)
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def move_right(self):
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self.move(Movement.RIGHT)
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def rotate_clockwise(self):
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self.rotate(Rotation.CLOCKWISE)
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def rotate_counter(self):
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self.rotate(Rotation.COUNTER)
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def soft_drop(self):
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moved = self.move(Movement.DOWN)
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if moved:
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self.stats.score += 1
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return moved
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def hard_drop(self):
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while self.move(Movement.DOWN, lock=False):
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self.stats.score += 2
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self.pattern_phase()
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T_SLOT_COORDS = (Coord(-1, 1), Coord(1, 1), Coord(-1, 1), Coord(-1, -1))
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def is_t_slot(self, n):
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t_slot_coord = (
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self.matrix.piece.coord
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+ self.T_SLOT_COORDS[(self.matrix.piece.orientation + n) % 4]
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)
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return not self.matrix.cell_is_free(t_slot_coord)
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def pause(self):
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self.phase = Phase.PAUSED
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self.stop_all()
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self.pressed_actions = []
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self.auto_repeat = False
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self.stop(self.repeat_action)
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def resume(self):
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self.phase = Phase.FALLING
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self.start(self.fall, self.stats.fall_delay)
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if self.phase == Phase.LOCK:
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self.start(self.pattern_phase, self.stats.lock_delay)
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self.start(self.stats.update_time, 1)
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def game_over(self):
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self.phase = Phase.OVER
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self.stop_all()
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self.save_high_score()
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self.on_game_over()
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def on_game_over(self):
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pass
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def stop_all(self):
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self.stop(self.fall)
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self.stop(self.pattern_phase)
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self.stop(self.stats.update_time)
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def do_action(self, action):
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action()
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if action in self.autorepeatable_actions:
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self.auto_repeat = False
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self.pressed_actions.append(action)
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if action == self.soft_drop:
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delay = self.stats.fall_delay / 20
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else:
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delay = self.AUTOREPEAT_DELAY
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self.restart(self.repeat_action, delay)
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def repeat_action(self):
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if self.pressed_actions:
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self.pressed_actions[-1]()
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if not self.auto_repeat:
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self.auto_repeat = True
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self.restart(self.repeat_action, self.AUTOREPEAT_PERIOD)
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else:
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self.auto_repeat = False
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self.stop(self.repeat_action)
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def remove_action(self, action):
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if action in self.autorepeatable_actions:
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try:
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self.pressed_actions.remove(action)
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except ValueError:
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pass
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def show_text(self, text):
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print(text)
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raise Warning("TetrisLogic.show_text not implemented.")
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def load_high_score(self, crypted_high_score=None):
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if crypted_high_score:
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crypted_high_score = int(pickle.loads(crypted_high_score))
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self.stats.high_score = crypted_high_score ^ CRYPT_KEY
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else:
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raise Warning(
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"""TetrisLogic.load_high_score not implemented.
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High score is set to 0"""
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)
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self.stats.high_score = 0
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def save_high_score(self):
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crypted_high_score = self.stats.high_score ^ CRYPT_KEY
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crypted_high_score = pickle.dumps(crypted_high_score)
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return crypted_high_score
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def start(task, period):
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raise Warning("TetrisLogic.start is not implemented.")
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def stop(self, task):
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raise Warning("TetrisLogic.stop is not implemented.")
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def restart(self, task, period):
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self.stop(task)
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self.start(task, period)
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