def reset(self, p1=Point(), p2=Point(), p3=Point()):
self.p[0] = p1
self.p[1] = p2
self.p[2] = p3
self.deformed[0] = p1
self.deformed[1] = p2
self.deformed[2] = p3
self.reset_tail()
def __init__(self, displ=0.05):
self.nodes = []
self.elements = []
self.presc = []
self.fixed = []
self.displ = displ
self.filename = ""
self.min = Point()
self.max = Point()
def __init__(self, p1=Point(), p2=Point(), p3=Point()):
self.p = []
self.values = []
self.deformed = []
self.p.append(p1)
self.p.append(p2)
self.p.append(p3)
self.deformed.append(p1)
self.deformed.append(p2)
self.deformed.append(p3)
def init_snake(self):
# 左上方开始
snake = Snake()
head_node = Node(img_path=GameConfig.snake_head_img)
tail_node = Node(img_path=GameConfig.snake_tail_img)
head_point = Point(1, 0)
tail_point = Point(0, 0)
snake.set_head(node=head_node, point=head_point)
snake.set_tail(node=tail_node, point=tail_point)
self.snake = snake
def clear_all(self): self.size = (300,400) self.points = [] self.deformed_points = [] self.edges = [] self.triangles = [] self.min = Point() self.max = Point() self.deformed_min = Point() self.deformed_max = Point()
def __init__(self, displ=0.05, nodal_yforce=2.0833333, forces=False):
self.nodes = []
self.elements = []
self.presc = []
self.fixed = []
self.displ = displ
self.nodal_yforce = nodal_yforce
self.use_forces = forces
self.filename = ""
self.min = Point()
self.max = Point()
self.surface_elements = []
def __init__(self, start, board):
width = 36
obstacles = []
obstacles.append(Pipe(start, 6, board))
obstacles.append(Pipe(start + 30, 6, board))
obstacles.append(Brick(Point(15, start + 9), Dimension(2, 7), board))
obstacles.append(Brick(Point(15, start + 19), Dimension(2, 7), board))
enemy = []
enemy.append(BossEnemy(FLOOR - 3, start + 9, board))
coin_row(Point(FLOOR - 1, start + 5), Dimension(1, 25), board)
Hurdle.__init__(self, start, width, obstacles, enemy, board)
self.load()
def read_nodes(self, nodename):
self.nodes = []
lines = read_and_clear_lines(nodename)
for line in lines:
line_values = line.split()
# 1st value is a node indes
if len(line_values) == 3: # only x,y coordinates given
node = Point(float(line_values[1]), float(line_values[2]))
self.nodes.append(node)
else: # x,y,z given
node = Point(float(line_values[1]), float(line_values[2]),
float(line_values[3]))
self.nodes.append(node)
def export3dbrick(filename, S, L, H, D, N, M, P, Ux):
# open a file
#fil = open(filename,"w+")
elems = N * M * P # number of elements
nods = (N + 1) * (M + 1) * (P + 1) # number of nodes
nodes = []
# algorithm of generating nodes is based on
# addition node by node in all horisontal layers
# total number of horisontal layers is P+1
#
# Lets count steps - and therefore distances btw nodes
step_x = 1. * L / P
step_y = 1. * D / M
step_z = 1. * H / N
# loops btw layers and fill nodes array
for k in range(P + 1):
x = S + step_x * k
#print "layer %d" % k
for i in range(N + 1):
z = S + step_z * i
for j in range(M + 1):
y = S + step_y * j
#print " node(%d,%d)" % (i,j)
p = Point(x, y, z)
nodes.append(p)
# loops btw layers and fill elements array
for k in range(P):
for i in range(N):
for j in range(M):
print "element %d %d %d" % (k, i, j)
def __init__(self, y, height, board):
focus = Point(FLOOR - height, y)
dimensions = Dimension(height, 7)
pipe = IDENTIFIER['pipe']
spring = IDENTIFIER['spring']
shape = [[pipe, pipe, spring, spring, spring, pipe, pipe]] * height
Obstacle.__init__(self, focus, shape, dimensions, board)
def __init__(self, x, y, board):
shape = [[MARIO_CHAR] * 3] * 3
People.__init__(self, Point(x, y), 1, shape, Dimension(3, 3), board)
self.state = 0
self.air = 0
self.board.mario = self
self.update()
def update(self):
'''Logic of update clearing of board and restoring'''
if self.pre:
self.board.update(self.pre_point, self.pre, self.dimensions)
self.pre = self.board.current(self.point, self.shape, self.dimensions)
self.pre_point = Point(self.point.x, self.point.y)
self.board.update(self.point, self.shape, self.dimensions)
def coin_row(point, dimensions, board):
'''Function to generate a row of coins'''
for i in range(dimensions.length):
for j in range(dimensions.breadth):
Coins(Point(point.x + i, point.y + j), board)
global totalcoin
totalcoin += 1
def reset_tail(self): Triangle3.reset_tail(self) p4 = Point() p5 = Point() p6 = Point() p4.x = self.p[0].x+(self.p[1].x-self.p[0].x)/2.0 p4.y = self.p[0].y+(self.p[1].y-self.p[0].y)/2.0 p5.x = self.p[1].x+(self.p[2].x-self.p[1].x)/2.0 p5.y = self.p[1].y+(self.p[2].y-self.p[1].y)/2.0 p6.x = self.p[2].x+(self.p[0].x-self.p[2].x)/2.0 p6.y = self.p[2].y+(self.p[0].y-self.p[2].y)/2.0 self.p.append(p4) self.p.append(p5) self.p.append(p6)
def __init__(self, board):
slash = IDENTIFIER['cloudSlash']
backslash = IDENTIFIER['cloudBackSlash']
space = IDENTIFIER['cloudSpace']
temp = [space] * 10
shape = [[slash, backslash] * 6, [backslash, *temp, slash],
[slash, *temp, backslash], [backslash, slash] * 6]
focus = Point(randint(0, 7), randint(4, board.breadth - 14))
Nature.__init__(self, focus, Dimension(4, 12), shape, board)
def __init__(self, start, board):
width = 56
obstacles = []
obstacles.append(Brick(Point(19, start), Dimension(2, 5), board))
obstacles.append(Brick(Point(15, start + 8), Dimension(2, 5), board))
obstacles.append(Brick(Point(11, start + 16), Dimension(2, 5), board))
obstacles.append(Brick(Point(5, start + 21), Dimension(2, 11), board))
obstacles.append(Brick(Point(19, start + 21), Dimension(2, 11), board))
obstacles.append(Valley(start + 18, 17, board))
obstacles.append(Brick(Point(11, start + 32), Dimension(2, 5), board))
obstacles.append(Brick(Point(15, start + 40), Dimension(2, 5), board))
obstacles.append(Brick(Point(19, start + 48), Dimension(2, 5), board))
coin_row(Point(4, start + 21), Dimension(1, 11), board)
Hurdle.__init__(self, start, width, obstacles, [], board)
self.load()
def __init__(self, start, board):
width = 26
obstacles = []
obstacles.append(Spring(start + 3, 6, board))
coin_row(Point(8, start + 6), Dimension(10, 1), board)
enemy = []
enemy.append(SlaveEnemy(FLOOR - 2, start, board))
enemy.append(SlaveEnemy(FLOOR - 2, start + 13, board))
Hurdle.__init__(self, start, width, obstacles, enemy, board)
self.load()
def __init__(self, board):
slash = IDENTIFIER['bushSlash']
backslash = IDENTIFIER['bushBackSlash']
space = IDENTIFIER['bushSpace']
pipe = IDENTIFIER['bushPipe']
temp = [space] * 10
shape = [[slash, backslash] * 6, [pipe, *temp, pipe],
[pipe, *temp, pipe]]
focus = Point(FLOOR - 3, randint(2, board.breadth - 14))
Nature.__init__(self, focus, Dimension(3, 12), shape, board)
def __init__(self):
self.display_surf = self.init_window()
self.snake = None
self.food = None
self.running = True
self.table_cols = GameConfig.win_width // GameConfig.node_width - 1
self.table_rows = GameConfig.win_height // GameConfig.node_height - 1
self.points = set([
Point(px, py) for px in range(self.table_cols + 1)
for py in range(self.table_rows + 1)
])
self.food_images = self.get_food_imgs()
def __init__(
self,
classname, # triangle class name
A=Point(1, 1), # upper-left point
B=Point(4, 7), # lower-right point
M=1, # Vertical bands
N=1): # Horizontal bands
# store template class name
self.T_ = classname
#############################
### Initial geometry data ###
#############################
self.A = A
self.B = B
self.M = M
self.N = N
# array of unique nodes
self.points = []
# index triangle array
self.triangles_indexed = []
self.generate()
def import_file(fname):
file = open(fname, "r")
lines = file.readlines()
file.close()
count_args = len(lines[0].split(','))
if count_args != 17:
wrong_format()
for line in lines:
if len(line.split(',')) != 17:
wrong_format()
# all ok, file can be processed
triangles = []
for line in lines:
vals = [float(i) for i in line.split(',')]
triangle = Triangle3(Point(vals[0],vals[1]),Point(vals[2],vals[3]),\
Point(vals[4],vals[5]))
g = [[vals[14], vals[14], vals[14]], [vals[15], vals[15], vals[15]],
[vals[16], vals[16], vals[16]]]
triangle.set_values_in_nodes(g)
del triangle.deformed
triangle.deformed = []
triangle.deformed.append(Point(vals[6], vals[7]))
triangle.deformed.append(Point(vals[8], vals[9]))
triangle.deformed.append(Point(vals[10], vals[11]))
triangles.append(triangle)
return triangles
def lifegame_next(matrix):
new = {}
for point, cell in matrix.cells.items():
sub = matrix.get_area(point, 1)
for x, line in enumerate(sub):
for y, cell in enumerate(line):
abspoint = Point(point.x + x - 1, point.y + y - 1)
num = area_lifenum(matrix.get_area(abspoint, 1))
if cell:
num -= 1
if num == 3 or (cell and num == 2):
new[abspoint] = Cell(abspoint, True)
return new
def N(self, i, point=Point()):
if i >= len(self.p):
print "Triangle6::N:Wrong argument i =", i
return
res = 0
if i == 0 or i == 1 or i == 2:
res = (2 * self.L(i) - 1) * self.L(i)
elif i == 3:
res = 4 * self.L(0) * self.L(1)
elif i == 4:
res = 4 * self.L(1) * self.L(2)
else: # i == 5
res = 4 * self.L(2) * self.L(0)
return res
def main():
m = Matrix(lifegame.rule)
for cells in m:
os.system("clear")
width = 10
height = 10
for y in range(height):
for x in range(width):
if m[Point(x, y)]:
put("x")
else:
put("0")
if x == width - 1:
put("\n")
time.sleep(0.2)
def read_nodes(self, nodename):
self.nodes = []
lines = read_and_clear_lines(nodename)
# First line: <# of points> <dimension (must be 3)> <# of attributes>
# <# of boundary markers (0 or 1)>
firstline_values = [int(i) for i in lines[0].split()]
# print firstline_values
nodes_number = firstline_values[0]
dof_number = firstline_values[1]
# next lines:
# <point #> <x> <y> <z> [attributes] [boundary marker]
for line_index in range(1, nodes_number + 1):
line_values = [float(i) for i in lines[line_index].split()]
self.nodes.append(
Point(line_values[1], line_values[2], line_values[3]))
def L(self, i, point=Point()):
if i >= len(self.p):
print "Triangle3::L:wrong argument i =", i
l = (self.a_coef(i)+self.b_coef(i)*point.x+self.c_coef(i)*point.y)/\
(2.0*self.S_triangle())
return l
def N(self, i, point=Point()):
if i >= len(self.p):
print "Triangle3::N:wrong argument i =", i
return
return self.L(i, point)
def sample(self):
r = self.radius * uniform()
x = normal(size=self.dimension)
return Point(r * x / np.linalg.norm(x))
def sample(self):
low, high = self.ranges.T
return Point(low + uniform(size=self.dimension) * (high - low))
def __init__(self, start, breadth, board):
dimensions = Dimension(5, breadth)
shape = [list([IDENTIFIER['valley']] * dimensions.breadth)
] * dimensions.length
Obstacle.__init__(self, Point(FLOOR, start), shape, dimensions, board)
def __init__(self, y, height, board):
focus = Point(FLOOR - height, y)
dimensions = Dimension(height, 5)
shape = [list([IDENTIFIER['pipe']] * 5)] * height
Obstacle.__init__(self, focus, shape, dimensions, board)