def test_diag_LU(self):
self.assertEquals(Pos(algebra_to_cartesian("a1")).diag("LU", 5), [])
self.assertEquals(Pos(algebra_to_cartesian("a8")).diag("LU", 5), [])
print(Pos(algebra_to_cartesian("h8")).diag("LU", 5))
self.assertEquals(Pos(algebra_to_cartesian("h8")).diag("LU", 5), [])
def read_file(filename):
map = None
with open(filename) as f:
lines = f.readlines()
first_line = True
counter = 0
for line in lines:
elements = line.split(" ")
int_elements = [int(el) for el in elements]
if first_line:
first_line = False
map = Map(int_elements[0], int_elements[1], int_elements[2],
int_elements[3], int_elements[4], int_elements[5])
else:
trip = Trip(counter, Pos(int_elements[0], int_elements[1]),
Pos(int_elements[2], int_elements[3]),
int_elements[4], int_elements[5])
map.add_trip(trip)
counter += 1
return map
def test_Rook1(self):
board = Board()
Board.populate_board(board)
b = Rook("ddd", Pos("h1"), board)
self.assertEqual(b.move_piece(Pos("h5")), True)
self.assertRaises(Exception, b.move_piece, Pos("a3"))
def draw_walls(self, canvas: Canvas) -> None:
head = self.snake.head
for x in range(-1, WIDTH + 1):
Pos(x, -1).draw(canvas, head, 'white')
Pos(x, HEIGHT).draw(canvas, head, 'white')
for y in range(-1, HEIGHT + 1):
Pos(-1, y).draw(canvas, head, 'white')
Pos(WIDTH, y).draw(canvas, head, 'white')
def test_Queen(self):
board = Board()
Board.populate_board(board)
b = Queen("ddd", Pos("f1"), board)
self.assertEqual(b.move_piece(Pos("h1")), True)
b = Queen("ddd", Pos("f1"), board)
self.assertRaises(InvalidMoveException, b.move_piece, Pos("h2"))
def test_knight_hops(self):
self.assertEquals(
Pos(algebra_to_cartesian("b1")).knight_hops("RU"), [[2, 5]])
print("8888", Pos(algebra_to_cartesian("b1")).knight_hops("RD"))
print("8888", Pos(algebra_to_cartesian("b1")).knight_hops("RU"))
print("8888", Pos(algebra_to_cartesian("b1")).knight_hops("LU"))
print("8888", Pos(algebra_to_cartesian("b1")).knight_hops("LD"))
def test_knight(self):
board = Board()
Board.populateBoard(board)
b = Knight("ddd", Pos("b1"), board)
board.update(b)
print("####################################")
print(b.move_piece(Pos("d2")))
def setMovement(self, duration, dir):
dir = Pos(dir)
new_x = self.pos[0] // 16 + dir[0]
new_y = self.pos[1] // 16 + dir[1]
if self.currentMap.bounds.checkBounds(
new_x, new_y, dir) and self.npcmanager.checkBounds(
Pos(new_x, new_y)):
self.remainingDuration = duration
self.displacement = dir * 16 // duration
self.moving = True
def __init__(self, currentMap, npcmanager):
self.pos = Pos(0, 0)
self.texturemap = get_texture("player-kaori")
self.textures = {
'downidle': (0, 0),
'down1': (32, 0),
'down2': (64, 0),
'upidle': (0, 32),
'up1': (32, 32),
'up2': (64, 32),
'rightidle': (0, 64),
'right1': (32, 64),
'right2': (64, 64),
'leftidle': (0, 96),
'left1': (32, 96),
'left2': (64, 96),
'run_down1': (96, 0),
'run_down2': (128, 0),
'run_down3': (160, 0),
'run_up1': (96, 32),
'run_up2': (128, 32),
'run_up3': (160, 32),
'run_right1': (96, 64),
'run_right2': (128, 64),
'run_right3': (160, 64),
'run_left1': (96, 96),
'run_left2': (128, 96),
'run_left3': (160, 96),
}
self.animations = {
'idle_north': ['upidle'],
'idle_east': ['rightidle'],
'idle_south': ['downidle'],
'idle_west': ['leftidle'],
'walk_north': ['up2', 'upidle', 'up1', 'upidle'],
'walk_east': ['right2', 'rightidle', 'right1', 'rightidle'],
'walk_south': ['down2', 'downidle', 'down1', 'downidle'],
'walk_west': ['left2', 'leftidle', 'left1', 'leftidle'],
'run_north': ['run_up2', 'run_up1', 'run_up3', 'run_up1'],
'run_east':
['run_right2', 'run_right1', 'run_right3', 'run_right1'],
'run_south': ['run_down2', 'run_down1', 'run_down3', 'run_down1'],
'run_west': ['run_left2', 'run_left1', 'run_left3', 'run_left1'],
}
self.currentStance = 'downidle'
self.setAnimation('idle_south', 1)
self.displacement = Pos(0, 0)
self.remainingDuration = 0
self.currentMap = currentMap
self.npcmanager = npcmanager
self.trainerdata = pkm.Trainer('Player')
self.trainerdata.party.append(pkm.Pokemon('Charmander'))
self.trainerdata.party[0].setlevel(4)
self.moving = False
self.direction = 'south'
def next_pos(self, direction: Direction) -> Pos:
"""
Find and return next position in the given direction.
This function does NOT check for the validity of the move.
:param direction: Direction of the move (left, right, up, down)
:return: Brick's next position/orientation in the given direction.
"""
# nextpos based on current position params.
nextpos = Pos(self.pos.x, self.pos.y, self.pos.orientation)
# Update nextpos position object params based on current orientation and the direction of next move.
# In a Pos object:
# x value always points to the left block for horizontal lying brick.
# y value always points to the upper block for vertical lying brick.
if self.pos.orientation is Orientation.STANDING:
if direction is Direction.UP:
nextpos.y -= 2
nextpos.orientation = Orientation.VERTICAL_LYING
if direction is Direction.DOWN:
nextpos.y += 1
nextpos.orientation = Orientation.VERTICAL_LYING
if direction is Direction.LEFT:
nextpos.x -= 2
nextpos.orientation = Orientation.HORIZONTAL_LYING
if direction is Direction.RIGHT:
nextpos.x += 1
nextpos.orientation = Orientation.HORIZONTAL_LYING
elif self.pos.orientation is Orientation.HORIZONTAL_LYING:
if direction is Direction.UP:
nextpos.y -= 1
if direction is Direction.DOWN:
nextpos.y += 1
if direction is Direction.LEFT:
nextpos.x -= 1
nextpos.orientation = Orientation.STANDING
if direction is Direction.RIGHT:
nextpos.x += 2
nextpos.orientation = Orientation.STANDING
elif self.pos.orientation is Orientation.VERTICAL_LYING:
if direction is Direction.UP:
nextpos.y -= 1
nextpos.orientation = Orientation.STANDING
if direction is Direction.DOWN:
nextpos.y += 2
nextpos.orientation = Orientation.STANDING
if direction is Direction.LEFT:
nextpos.x -= 1
if direction is Direction.RIGHT:
nextpos.x += 1
return nextpos
def crush(self, p0, p1):
if type(p1) == Vel:
p1 = p0 + p1
pld = Pos(self.left, self.bot)
prd = Pos(self.left + self.width, self.bot)
plu = Pos(self.left, self.bot + self.height)
pru = Pos(self.left + self.width, self.bot + self.height)
return (self.crush_hline(pld, prd, p0, p1)
or self.crush_hline(plu, pru, p0, p1)
or self.crush_vline(pld, plu, p0, p1)
or self.crush_vline(prd, pru, p0, p1))
def test_diag_LU(self):
self.assertEquals(Pos(algebra_to_cartesian("a1")).diag("LU", 5), [])
self.assertEquals(Pos(algebra_to_cartesian("a8")).diag("LU", 5), [])
"""self.assertEquals(
Pos(algebra_to_cartesian("h1")).diag("LU", 5),
[[6, 6], [5, 5], [4, 4], [3, 3], [2, 2]],
)
"""
print(Pos(algebra_to_cartesian("h8")).diag("LU", 5))
self.assertEquals(Pos(algebra_to_cartesian("h8")).diag("LU", 5), [])
def test_board(self):
board = Board()
board.populateBoard()
p = Knight("ddd", Pos("b8"), board)
board.update(p,
Pos("a4")) # bypasses the move piece allows illegal moves
board.printBoardOnScreen()
obj, objname = board.piece_from_algebraic_coord("a4")
self.assertIsInstance(obj, Knight)
print(obj)
def test_diag_RU(self):
self.assertEquals(
Pos(algebra_to_cartesian("a1")).diag("RU", 5),
[[1, 6], [2, 5], [3, 4], [4, 3], [5, 2]],
)
self.assertEquals(Pos(algebra_to_cartesian("a8")).diag("RU", 5), [])
self.assertEquals(Pos(algebra_to_cartesian("h1")).diag("RU", 5), [])
self.assertEquals(Pos(algebra_to_cartesian("h8")).diag("RU", 5), [])
def observe(self, buffer_slice: np.ndarray) -> None:
for cell in self.snake.body:
self.set_pixel(buffer_slice, cell, CHANNEL_OBSTACLE)
for apple in self.apples:
self.set_pixel(buffer_slice, apple, CHANNEL_APPLE)
for x in range(-1, WIDTH + 1):
self.set_pixel(buffer_slice, Pos(x, -1), CHANNEL_OBSTACLE)
self.set_pixel(buffer_slice, Pos(x, HEIGHT), CHANNEL_OBSTACLE)
for y in range(-1, HEIGHT + 1):
self.set_pixel(buffer_slice, Pos(-1, y), CHANNEL_OBSTACLE)
self.set_pixel(buffer_slice, Pos(WIDTH, y), CHANNEL_OBSTACLE)
def checkTriggers(self, playerState: Player):
pX, pY = playerState.getPos()
for configMonster in self.config:
tX, tY = [int(i) for i in configMonster["trigger"].split()]
if (pX == tX and pY == tY and not configMonster["spawned"]):
configMonster["spawned"] = True
mX, mY = [int(i) for i in configMonster["location"].split()]
if configMonster["type"] == "Slime":
self.monsters.append(
Slime(Pos(mX, mY), configMonster["level"]))
elif configMonster["type"] == "DemonKing":
self.monsters.append(DemonKing(Pos(mX, mY)))
def test_Knight1(self):
board = Board()
Board.populateBoard(board)
b = Knight("ddd", Pos("b1"), board)
board.update(b)
self.assertEqual(b.move_piece(Pos("a2")), False)
b = Knight("ddd", Pos("b1"), board)
board.update(b)
self.assertEqual(b.move_piece(Pos("a3")), True)
def __init__(self,
size,
pos=Pos(0, 0),
border=0,
spacing=0,
orientation=orientation.VERTICAL,
scaling=styles.FREE):
super(ListLayout, self).__init__(size, pos, border)
self.next_child_origin = Pos(self.origin.x + self.pos.x + self.border,
self.origin.y + self.pos.y + self.border)
self.orientation = orientation
self.spacing = spacing
self.scaling = scaling
def test_Bishop1(self):
board = Board()
Board.populateBoard(board)
b = Bishop("ddd", Pos("c5"), board)
board.update(b)
self.assertEqual(b.move_piece(Pos("h3")), False)
b = Bishop("ddd", Pos("c5"), board)
board.update(b)
self.assertEqual(b.move_piece(Pos("d4")), True)
def test_knight_hops(self):
# knight_pos = Pos(algebra_to_cartesian("b1"))
# self.assertEquals((knight_pos).knight_hops("RU"), [])
self.assertEquals(
Pos(algebra_to_cartesian("b1")).knight_hops("RU"), [[2, 5]])
# self.assertEquals(knight_pos).knight_hops("RD", [121])
# self.assertEquals(knight_pos).knight_hops("LU", [1])
# self.assertEquals(knight_pos).knight_hops("LD", [1])
# print(knight_pos.knight_hops())
print("8888", Pos(algebra_to_cartesian("b1")).knight_hops("RD"))
print("8888", Pos(algebra_to_cartesian("b1")).knight_hops("RU"))
print("8888", Pos(algebra_to_cartesian("b1")).knight_hops("LU"))
print("8888", Pos(algebra_to_cartesian("b1")).knight_hops("LD"))
def test_pos_slide_withboard(self):
pos = Pos("a3")
print(pos.slide("U", 3))
board = Board()
board.populateBoard()
pos = Pos("a1")
print(pos.slide("U", 2, board))
pos = Pos("h1")
print(pos.slide("U", 2, board))
def test_Bishop1(self):
board = Board()
Board.populate_board(board)
# b = Bishop("ddd", Pos("b8"), board)
# self.assertEqual(b.move_piece(Pos("a7")), True)
b = Bishop("ddd", Pos("c5"), board)
board.update(b)
# self.assertRaises(InvalidMoveException, b.move_piece, Pos("h3"))
self.assertEqual(b.move_piece(Pos("h3")), False)
b = Bishop("ddd", Pos("c5"), board)
board.update(b)
self.assertEqual(b.move_piece(Pos("d4")), True)
def move(color):
valid_move = False
while not valid_move:
print("%s moves now: " % color.upper())
curr_algebraic_coord = input("Enter the current piece location >")
next_algebraic_coord = input("Enter the goto location >")
if curr_algebraic_coord == "end" or next_algebraic_coord == "end":
break
pieceObj, _ = board.piece_from_algebraic_coord(curr_algebraic_coord)
if pieceObj: # there is a piece there
if pieceObj.color == color:
valid_move = pieceObj.move_piece(Pos(next_algebraic_coord))
if valid_move:
f = open("pastgames.txt", "a")
f.write(color.upper() + " : " + curr_algebraic_coord +
" " + next_algebraic_coord + " \n")
# f.write(" it went in the else")
f.close()
if not valid_move:
print("Invalid move " + curr_algebraic_coord +
" cannot move to " + next_algebraic_coord)
else:
print("%s moves " % color.upper())
else:
print("No object at that place")
Board.printBoardOnScreen(board)
def __init__(self, posx, posy, index, map):
self._map = map
self._pos = Pos(posx, posy)
self._index = index
self._name = "P" + str(index)
# the healing power
self._power = random.randint(0, self._HEAL_CAP - 6) + 5
def is_queen_at_diagonal(self, pos: Pos, queens_pos: Dict[int, Pos]):
# assume, pos has a queen on it.
up_right = [-1, +1]
down_right = [+1, +1]
up_left = [-1, -1]
down_left = [+1, -1]
directions = [up_right, down_right, up_left, down_left]
for (
i,
j,
) in directions:
next_row = pos.row + i
next_col = pos.col + j
while True:
if next_row < 0 or next_row >= self.size or next_col < 0 or next_col >= self.size:
break
if Pos(next_row, next_col) in queens_pos.values():
return True
next_row = next_row + i
next_col = next_col + j
return False
def is_queen_at_column(self, pos: Pos, queens_pos: Dict[int, Pos]):
for row in range(self.size):
if row == pos.row:
continue
if Pos(row, pos.col) in queens_pos.values():
return True
return False
def __init__(self, posx, posy, index, map):
self._map = map
self._pos = Pos(posx, posy)
self._index = index
self._name = "W" + str(index)
self._health = self._HEALTH_CAP
self._magic_crystal = 10
def move(color):
validMove = False
# only enters while loop if its a valid move
while not validMove:
print("%s moves now: " % color.upper())
currAlgebraicCoord = input("Enter the current piece location >")
nextAlgebraicCoord = input("Enter the goto location >")
if currAlgebraicCoord == "end" or nextAlgebraicCoord == "end":
break
# type end to exit the program in command line
pieceObj, _ = board.piece_from_algebraic_coord(currAlgebraicCoord)
if pieceObj: # there is a piece there
if pieceObj.color == color:
validMove = pieceObj.move_piece(Pos(nextAlgebraicCoord))
# pieces are the same color
if validMove:
board.updateMoveOnFile(color, currAlgebraicCoord,
nextAlgebraicCoord)
# update the file
if not validMove:
# not a valid move
# raise exception
print("Invalid move " + currAlgebraicCoord +
" cannot move to " + nextAlgebraicCoord)
else:
print("%s moves " % color.upper())
else:
print("No object at that place")
Board.printBoardOnScreen(board)
def get_un_occupied_position(self):
randx = random.randint(0,self._DIMENSION-1)
randy = random.randint(0,self._DIMENSION-1)
while(self.lands[randx][randy].occupied_obj != None):
randx = random.randint(0,self._DIMENSION-1)
randy = random.randint(0,self._DIMENSION-1)
return Pos(randx,randy)
def __init__(self, right, bottom, sym):
super().__init__()
self.values.append(Line(Pos(0, 0), Pos(right, 0), sym))
self.values.append(Line(Pos(right - 1, 0), Pos(right - 1, bottom),
sym))
self.values.append(
Line(Pos(0, bottom - 1), Pos(right, bottom - 1), sym))
self.values.append(Line(Pos(0, 0), Pos(0, bottom), sym))
def main():
my_pos = Pos("28a29a3c154e458298357f5bf9ff3676", "Giz9y4cM")
employee_list = my_pos.employees()
for emp in employee_list:
print emp.id()
print emp.first_name()
print
revenue_center_list = my_pos.revenue_centers()
for rev in revenue_center_list:
print rev.name()
order_type_list = my_pos.order_types()
for ord in order_type_list:
print ord.name()
table_list = my_pos.tables()
for tab in table_list:
print tab.name()
my_pos.create_ticket(employee_list[0], order_type_list[0],
revenue_center_list[0], table_list[0],
1, 'auto_ticket')
def setConnection(self, direction, node):
if(direction >= 0 and direction <= 3):
self.connections[Pos.inverse(direction)] = node
node.connections[direction] = self;
#coding=utf-8
from pos import Pos
#from publisher import get_topics
# TODO: initialize a new Pos object
# and test if it is initialized correctly
test_pos = Pos('./test_root_dir2/')
#TODO: replace print to assert
publishers = test_pos.get_publishers()
'''print len(publishers) # 3 for current test fixture
for publisher in publishers:
print publisher.get_name()
#print publisher
topics = publisher.get_topics()
#print topics
for topic in topics:
print topic.get_name()
print topic.get_version()
print topic.get_data_profile()'''
