def __init__(self, **argd):
"""x.__init__(...) initializes x; see x.__class__.__doc__ for signature"""
super(OpenGLComponent, self).__init__()
# get transformation data and convert to vectors
self.size = Vector( *argd.get("size", (0,0,0)) )
self.position = Vector( *argd.get("position", (0,0,0)) )
self.rotation = Vector( *argd.get("rotation", (0.0,0.0,0.0)) )
self.scaling = Vector( *argd.get("scaling", (1,1,1) ) )
# for detection of changes
self.oldrot = Vector()
self.oldpos = Vector()
self.oldscaling = Vector()
self.transform = Transform()
# name (mostly for debugging)
self.name = argd.get("name", "nameless")
# create clock
self.clock = pygame.time.Clock()
self.frametime = 0.0
# get display service
displayservice = OpenGLDisplay.getDisplayService()
# link display_signal to displayservice
self.link((self,"display_signal"), displayservice)
def __init__(self, **argd):
"""x.__init__(...) initializes x; see x.__class__.__doc__ for signature"""
super(Container, self).__init__()
# get transformation data and convert to vectors
self.position = Vector( *argd.get("position", (0,0,0)) )
self.rotation = Vector( *argd.get("rotation", (0.0,0.0,0.0)) )
self.scaling = Vector( *argd.get("scaling", (1,1,1) ) )
# for detection of changes
self.oldrot = Vector()
self.oldpos = Vector()
self.oldscaling = Vector()
# inital apply trasformations
self.transform = Transform()
self.components = []
self.rel_positions = {}
self.rel_rotations = {}
self.rel_scalings = {}
self.poscomms = {}
self.rotcomms = {}
self.scacomms = {}
contents = argd.get("contents", None)
if contents is not None:
for (comp, params) in contents.items():
self.addElement(comp, **params)
def testRemoveWithDuplicates(self):
vec = Vector()
vec.append("a")
vec.append("b")
vec.append("c")
self.duplicatesVec.remove("b")
self.assertEquals(vec, self.duplicatesVec)
def lanczos(A):
k = len(A)
b = Vector.rand(n=k)
q = [Vector.new(n=k) for i in range(2)]
q[1] = b / abs(b)
b = [0]
a = [0]
for i in range(1, int(2 * sqrt(k))):
z = Vector((A * q[i]).transpose()[0])
a.append(float(Matrix([q[i]]) * z))
z = z - q[i] * a[i] - q[i-1] * b[i-1]
for j in q:
z -= j * (z * j)
for j in q:
z -= j * (z * j)
b.append(abs(z))
if b[i] == 0:
break
q.append(z / b[i])
Q = Matrix(q[-k-1:-1]).transpose()
T = Q.transpose() * A * Q
return (Q, T, )
def testExtendByEmpty(self):
vec = Vector()
for i in range(BIG_VEC_SIZE):
vec.append(i)
self.bigVec.extend(Vector())
self.assertEqual(self.bigVec, vec)
self.assertEqual(self.bigVec, self.cleanBigVec)
def collide(self, p1, p2):
"""Collission detection and handling method"""
distance = Vector.distance_between(p1.pos, p2.pos)
if distance < (p1.size + p2.size):
angle = Vector.angle_between(p1.pos, p2.pos) + 0.5 * math.pi
total_mass = p1.mass + p2.mass
p1.direction = Vector(p1.direction.length * (p1.mass - p2.mass) / total_mass, p1.direction.angle) \
+ Vector(2 * p2.direction.length * p2.mass / total_mass, angle)
p2.direction = Vector(p2.direction.length * (p2.mass - p1.mass) / total_mass, p2.direction.angle) \
+ Vector(2 * p1.direction.length * p1.mass / total_mass, angle)
p1.direction.length *= self.elasticity
p2.direction.length *= self.elasticity
tangent = Vector.angle_between(p1.pos, p2.pos)
# bounce on tangent
#p1.direction.bounce(2 * tangent)
#p2.direction.bounce(2 * tangent)
# change speed
#(p1.direction.length, p2.direction.length) = (p2.direction.length, p1.direction.length)
#avoid sticky problem
angle = 0.5 * math.pi + tangent
overlap = 0.5 * (p1.size + p2.size - distance + 1)
p1.pos.x += math.sin(angle) + overlap
p1.pos.y -= math.cos(angle) + overlap
p2.pos.x -= math.sin(angle) + overlap
p2.pos.y += math.cos(angle) + overlap
def testInsertAtStartNegative(self):
self.bigVec.insert(-BIG_VEC_SIZE, "a")
vec = Vector()
vec.append("a")
for i in range(BIG_VEC_SIZE):
vec.append(i)
self.assertEqual(self.bigVec, vec)
def resolve(self):
"""
Return combined result of all steering behaviours.
"""
acc=Vector(0,0)
#if type(self.player.state) == Player.RxAttack:
# pdb.set_trace()
if self._avoid_defenders_on:
acc += self.avoid_defenders() * self.w_avoid_defenders
if self._seek_on:
acc += self.seek() * self.w_seek
if self._seek_end_zone_on:
acc += self.seek_end_zone() * self.w_seek_end_zone
if self._avoid_walls_on:
acc += self.avoid_walls() * self.w_avoid_walls
if self._pursue_on:
acc += self.pursue() * self.w_pursue
if self._block_on:
acc += self.block() * self.w_block
if self._avoid_friends_on:
acc += self.avoid_friends() * self.w_avoid_friends
if self._zone_defend_on:
acc += self.zone_defend() * self.w_zone_defend
if self._guard_on:
acc += self.guard() * self.w_guard
if self._stay_in_range_on:
acc += self.stay_in_range() * self.w_stay_in_range
if self._avoid_end_zone_on:
acc += self.avoid_end_zone() * self.w_avoid_end_zone
if self._arrive_at_speed_on:
acc += self.arrive_at_speed() * self.w_arrive_at_speed
return acc.truncate(self.player.top_acc)
def testInsertAtEnd(self):
self.bigVec.insert(BIG_VEC_SIZE, "a")
vec = Vector()
for i in range(BIG_VEC_SIZE):
vec.append(i)
vec.append("a")
self.assertEqual(self.bigVec, vec)
def __init__(self, coords=(0, 0), speed=(0, 0)):
self.coords = Vector(coords)
self.speed = Vector(speed)
self.color = (250, 0, 0)
self.acsel = Vector((0, 0))
self.status = MOVE
self.angle_speed = 0.1
def __init__(self, world, name, image, text):
"""Base class used to construct a game entity.
Returns new GameEntity object
with the specified variables world, name,image, text, location, destination, speed, brain and id, this is a super
class and should ideally be used via inheritance
world: holds a world object. For game entities this should ideally be the
world game
name: holds the name of the particular entity being constructed e.g. zombie
image: holds the location of the image that will be used as the main image
for whatever GameEntity is constructed. This image holder will also be used to
store the image as a result of rotation for display
start_image: holds the location of the image that will be used as the main image
for whatever GameEntity is constructed. This one however will not be altered but
used as a reference to reset the rotational image when a new rotation is required.
text: holds the text that will be displayed in a textual entity; for example
the TextBox Entity
location: holds a default Vector of (0,0) that will be altered to set the location
of the enity that is created
destination: holds a default Vector of (0,0) that will be altered to set the destination
location of the entity
heading: holds a default Vector of (0,0) that will be altered to set the heading; vector
between two points with no size. Can be seen as the direction
last_heading: holds a default Vector of (0,0), this heading will typically be used
to remember the last heading that was used for rotating an entity image, so that rotation
does not get caught in an infinite loop
speed: holds a number variable default 0. that will be altered to set the speed
of the entity that is created
brain: holds a StateManager object that is used to manage the states that the
entity object will use
id: holds the numerial id for the entity object that is being created
"""
self.world = world
self.name = name
self.image = image
self.start_image = image
self.text = text
self.location = Vector(0,0)
self.destination = Vector(0,0)
self.heading = Vector(0,0)
self.last_heading = Vector(0,0)
self.speed = 0.
self.brain = StateManager()
self.id = 0
def volume(self):
ps = Vector(self.p,self.s)
qs = Vector(self.q,self.s)
rs = Vector(self.r,self.s)
return ps * (qs.cross(rs))/6.0
def testRemoveAtEnd(self):
vec = Vector()
for i in range(BIG_VEC_SIZE-1):
vec.append(i)
self.bigVec.remove(BIG_VEC_SIZE-1)
self.assertEqual(vec, self.bigVec)
def testExtendGood(self):
vec = Vector()
for i in range(BIG_VEC_SIZE):
vec.append(i)
vec.append(10)
self.bigVec.extend(self.oneVec)
self.assertEqual(self.bigVec, vec)
def testRemoveAtStart(self):
vec = Vector()
for i in range(1,BIG_VEC_SIZE):
vec.append(i)
self.bigVec.remove(0)
vec.remove(0)
self.assertEqual(vec, self.bigVec)
def __init__(self, used, cut):
"""Create a new 'Rpg' instance
"""
Vector.__init__(self, used, cut)
self.rm_dupli = defaultdict(list)
self.head_in_read = []
self.min_size = 1
def __init__(self, ax, ay, bx=0.0, by=0.0):
"Start and end are Vectors"
if isinstance(ax, Vector) and isinstance(ay, Vector):
self.start = ax
self.end = ay
else:
self.start = Vector(ax, ay)
self.end = Vector(bx, by)
def __init__(self, coords):
self.coords = Vector(coords)
self.image = pygame.Surface((50, 40), pygame.SRCALPHA)
self.speed = Vector((10, 0))
self.boost = 1
self.direction = self.speed
self.state = NORMAL
self.draw()
def __init__(self, used, cut, nb_sample, **opt):
"""Create a new 'Sample' instance
"""
Vector.__init__(self, used, cut, **opt)
self._nb_sample = nb_sample
self.vector_val = ''
def testManyRemoves(self):
vec = Vector()
for i in range(50, BIG_VEC_SIZE):
vec.append(i)
for i in range(50):
self.bigVec.remove(i)
self.assertEquals(vec, self.bigVec)
def test_Vector_attribute_setting_should_work(x,y, new_x,new_y):
v = Vector(x,y)
v.x = new_x
assert v.x == new_x
assert v.y == y
v.y = new_y
assert v.y == new_y
assert v.x == new_x
def test_length(self):
obj = Vector.from_tuple(1, 0, 0)
self.assertEqual(obj.length(), 1)
obj = Vector.from_tuple(0, 0, 0)
self.assertEqual(obj.length(), 0.0)
obj = Vector.from_tuple(1, 1, 1)
self.assertEqual(obj.length(), math.sqrt(3.0))
self.assertEqual(obj.length_sqrd(), 3.0)
def test_rot_align(self):
obj1 = Vector.from_tuple(1, 0, 0)
obj2 = Vector.from_tuple(0, 1, 0)
transformation = Utils3d.get_rot_align(obj1, obj2)
#print transformation
result = transformation.mul_vec(obj1)
#print result
self.assertEqual(result, obj2)
def test_shift(self):
"""shift vector with transformation matrix"""
vector = Vector.from_tuple(1, 0, 0)
# this should shift X Axis about 2
shift_vector = Utils3d.get_shift_vector(2, 0, 0)
# calculate linear transformation A*v
t = shift_vector + vector
# result should be shifted about 2 on x-axis
self.assertEqual(t, Vector.from_tuple(3, 0, 0))
def testludecomp(self):
# TODO: Fix this test and the function under test!
return
A = Matrix([1, 2, 3], [4, 5, 6], [7, 8, 9])
m2 = A.clone()
(index, d) = m2.ludecomp()
b = Vector(6, -1, 3)
x = m2.lubacksub(index, b.clone())
assert(False)
def testInsertMiddle(self):
vec1 = Vector()
vec1.append("a")
vec1.append("b")
vec1.append("c")
vec2 = Vector()
vec2.append("a")
vec2.append("c")
vec2.insert(1,"b")
self.assertEqual(vec1, vec2)
def distFromPointToLine(p, p1, p2):
line = Vector(p2) - Vector(p1)
toP = Vector(p) - Vector(p1)
dot = toP.dot(line)
if 0 <= dot <= line.length ** 2:
projection = toP.proj(line)
rejection = toP - projection
return rejection.length
else:
return min(toP.length, (Vector(p) - Vector(p2)).length)
def rule3(self, hoik):
v = Vector(0, 0)
if hoik.pos.x < 10:
v.x = 20
elif hoik.pos.x > C.SCREEN_SIZE.x-10:
v.x = -20
if hoik.pos.y < 10:
v.y = 20
elif hoik.pos.y > C.SCREEN_SIZE.y-10:
v.y = -20
return v
def test_linearIndependenceWorks(self):
one_1 = Vector([1, 1])
three_3 = Vector([3, 3])
self.assertFalse(Vector.areLinearlyIndependent([one_1, three_3]))
one = Vector([1])
three = Vector([3])
self.assertFalse(Vector.areLinearlyIndependent([one, three]))
one_3 = Vector([1, 3])
self.assertTrue(Vector.areLinearlyIndependent([one_1, one_3]))
def __init__(self, pos = [130,0],vmax = 60., thePath=[]):
self.currentNode = 0
self.pathDir = 1
self.nodes = thePath.getNodes()
self.t = self.nodes[self.currentNode]
self.max_v = vmax
self.p = Vector(pos)
self.v = Vector([0., 0.])
self.max_see_ahead = 30
self.max_avoid_force = 1.5
self.obstacles = []
def generateSceneNode(file_name, xz_size, peak_height, base_height,
blur_iterations, max_size, lighter_is_higher, file):
scene_node = SceneNode()
mesh = MeshBuilder() #初始化
# img = QImage(file_name)
im = Image.open(file_name)
# if im.isNull():
# Logger.log("e", "Image is corrupt.")
# return None
# width = max(img.width(), 2)
# height = max(img.height(), 2)
width = max(im.size[0], 2)
height = max(im.size[1], 2)
aspect = height / width
# if im.width() < 2 or im.height() < 2:
# img = img.scaled(width, height, Qt.IgnoreAspectRatio)
# im = im.resize(width, height, Image.ANTIALIAS)
base_height = max(base_height, 0)
peak_height = max(peak_height, -base_height)
xz_size = max(xz_size, blur_iterations)
scale_vector = Vector(xz_size, peak_height, xz_size)
if width > height:
scale_vector = scale_vector.set(z=scale_vector.z * aspect)
elif height > width:
scale_vector = scale_vector.set(x=scale_vector.x / aspect)
if width > max_size or height > max_size:
scale_factor = max_size / width
if height > width:
scale_factor = max_size / height
width = int(max(round(width * scale_factor), 2))
height = int(max(round(height * scale_factor), 2))
# img = img.scaled(width, height, Qt.IgnoreAspectRatio)
im = im.resize((width, height), Image.ANTIALIAS)
width_minus_one = width - 1
height_minus_one = height - 1
#Job.yieldThread()
texel_width = 1.0 / (width_minus_one) * scale_vector.x
texel_height = 1.0 / (height_minus_one) * scale_vector.z
height_data = numpy.zeros((height, width), dtype=numpy.float32)
for x in range(0, width):
for y in range(0, height):
# qrgb = img.pixel(x, y)
qrgb = im.getpixel((x, y))
R = qrgb[0]
G = qrgb[1]
B = qrgb[2]
avg = float(R + G + B) / (3 * 255)
# qR=qRed(qrgb)
# qG=qGreen(qrgb)
# qB=qBlue(qrgb)
# avg=float(qR+qG+qB)/(3 * 255)
# avg = float(qRed(qrgb) + qGreen(qrgb) + qBlue(qrgb)) / (3 * 255)
height_data[y, x] = avg
#Job.yieldThread()
if not lighter_is_higher:
height_data = 1 - height_data
for _ in range(0, blur_iterations):
copy = numpy.pad(height_data, ((1, 1), (1, 1)), mode="edge")
height_data += copy[1:-1, 2:]
height_data += copy[1:-1, :-2]
height_data += copy[2:, 1:-1]
height_data += copy[:-2, 1:-1]
height_data += copy[2:, 2:]
height_data += copy[:-2, 2:]
height_data += copy[2:, :-2]
height_data += copy[:-2, :-2]
height_data /= 9
# Job.yieldThread()
height_data *= scale_vector.y
height_data += base_height
heightmap_face_count = 2 * height_minus_one * width_minus_one
total_face_count = heightmap_face_count + (width_minus_one *
2) * (height_minus_one * 2) + 2
mesh.reserveFaceCount(total_face_count)
# initialize to texel space vertex offsets.
# 6 is for 6 vertices for each texel quad.
heightmap_vertices = numpy.zeros(
(width_minus_one * height_minus_one, 6, 3), dtype=numpy.float32)
heightmap_vertices = heightmap_vertices + numpy.array(
[[[0, base_height, 0], [0, base_height, texel_height],
[texel_width, base_height, texel_height],
[texel_width, base_height, texel_height],
[texel_width, base_height, 0], [0, base_height, 0]]],
dtype=numpy.float32)
offsetsz, offsetsx = numpy.mgrid[0:height_minus_one, 0:width - 1]
offsetsx = numpy.array(offsetsx, numpy.float32).reshape(-1,
1) * texel_width
offsetsz = numpy.array(offsetsz, numpy.float32).reshape(-1,
1) * texel_height
# offsets for each texel quad
heightmap_vertex_offsets = numpy.concatenate([
offsetsx,
numpy.zeros((offsetsx.shape[0], offsetsx.shape[1]),
dtype=numpy.float32), offsetsz
], 1)
heightmap_vertices += heightmap_vertex_offsets.repeat(6,
0).reshape(-1, 6, 3)
# apply height data to y values
heightmap_vertices[:, 0,
1] = heightmap_vertices[:, 5,
1] = height_data[:-1, :
-1].reshape(-1)
heightmap_vertices[:, 1, 1] = height_data[1:, :-1].reshape(-1)
heightmap_vertices[:, 2,
1] = heightmap_vertices[:, 3,
1] = height_data[1:,
1:].reshape(-1)
heightmap_vertices[:, 4, 1] = height_data[:-1, 1:].reshape(-1)
heightmap_indices = numpy.array(numpy.mgrid[0:heightmap_face_count * 3],
dtype=numpy.int32).reshape(-1, 3)
mesh._vertices[0:(heightmap_vertices.size //
3), :] = heightmap_vertices.reshape(-1, 3)
mesh._indices[0:(heightmap_indices.size // 3), :] = heightmap_indices
mesh._vertex_count = heightmap_vertices.size // 3
mesh._face_count = heightmap_indices.size // 3
geo_width = width_minus_one * texel_width
geo_height = height_minus_one * texel_height
# bottom
mesh.addFaceByPoints(0, 0, 0, 0, 0, geo_height, geo_width, 0, geo_height)
mesh.addFaceByPoints(geo_width, 0, geo_height, geo_width, 0, 0, 0, 0, 0)
# north and south walls
for n in range(0, width_minus_one):
x = n * texel_width
nx = (n + 1) * texel_width
hn0 = height_data[0, n]
hn1 = height_data[0, n + 1]
hs0 = height_data[height_minus_one, n]
hs1 = height_data[height_minus_one, n + 1]
mesh.addFaceByPoints(x, 0, 0, nx, 0, 0, nx, hn1, 0)
mesh.addFaceByPoints(nx, hn1, 0, x, hn0, 0, x, 0, 0)
mesh.addFaceByPoints(x, 0, geo_height, nx, 0, geo_height, nx, hs1,
geo_height)
mesh.addFaceByPoints(nx, hs1, geo_height, x, hs0, geo_height, x, 0,
geo_height)
# west and east walls
for n in range(0, height_minus_one):
y = n * texel_height
ny = (n + 1) * texel_height
hw0 = height_data[n, 0]
hw1 = height_data[n + 1, 0]
he0 = height_data[n, width_minus_one]
he1 = height_data[n + 1, width_minus_one]
mesh.addFaceByPoints(0, 0, y, 0, 0, ny, 0, hw1, ny)
mesh.addFaceByPoints(0, hw1, ny, 0, hw0, y, 0, 0, y)
mesh.addFaceByPoints(geo_width, 0, y, geo_width, 0, ny, geo_width, he1,
ny)
mesh.addFaceByPoints(geo_width, he1, ny, geo_width, he0, y, geo_width,
0, y)
mesh.calculateNormals(fast=True)
scene_node.setMeshData(mesh.build())
saveScene(file, scene_node)
class VectorTest(unittest.TestCase):
def setUp(self):
p1 = Point()
p2 = Point(1, 1, 1)
p3 = Point(-1, -1, 1)
self.v1 = Vector(p1, p2)
self.v2 = Vector(p1, p3)
def tearDown(self):
self.v1 = None
self.v2 = None
def test_value(self):
true = self.assertTrue
true(self.v1.value, [1, 1, 1])
true(self.v2.value, [-1, -1, 1])
def test_length(self):
true = self.assertTrue
l1 = self.v1.length
l2 = self.v2.length
true(l1, 3**0.5)
true(l2, l1)
def test_direction(self):
true = self.assertTrue
d1 = self.v1.direction
d2 = self.v2.direction
ansv = 3**0.5
ans1 = Vector(Point(), Point(ansv, ansv, ansv))
ans2 = Vector(Point(), Point(-ansv, -ansv, ansv))
true(d1.value, ans1.value)
true(d2.value, ans2.value)
def test_normalize(self):
true = self.assertTrue
self.v1.normalize
self.v2.normalize
ansv = 3**0.5
ans1 = Vector(Point(), Point(ansv, ansv, ansv))
ans2 = Vector(Point(), Point(-ansv, -ansv, ansv))
true(self.v1.value, ans1.value)
true(self.v2.value, ans2.value)
def test_dot(self):
true = self.assertTrue
dot1 = self.v1.dot(self.v2)
dot2 = self.v2.dot(self.v1)
true(dot1, 1)
true(dot1, dot2)
def test_cross(self):
true = self.assertTrue
cross1 = self.v1.cross(self.v2)
cross2 = self.v2.cross(self.v1)
ans1 = Vector(Point(), Point(2, -2, 0))
ans2 = Vector(Point(), Point(-2, 2, 0))
true(cross1, ans1.value)
true(cross2, ans2.value)
def test_rotation(self):
deg = self.v1.rotation(self.v2)
self.assertTrue(deg, 70.52877936550934)
def test_add(self):
v = self.v1 + self.v2
self.assertTrue(v.value, [0, 0, 2])
def test_sub(self):
v = self.v1 - self.v2
self.assertTrue(v.value, [2, 2, 0])
def test_mul(self):
true = self.assertTrue
v3 = self.v1 * 2
v4 = self.v2 * -2
true(v3.value, [2, 2, 2])
true(v4.value, [2, 2, -2])
def test_div(self):
true = self.assertTrue
v3 = self.v1 / 0.5
v4 = self.v2 / -0.5
true(v3.value, [2, 2, 2])
true(v4.value, [2, 2, -2])
def test_iadd(self):
self.v1 += self.v2
self.assertTrue(self.v1, [0, 0, 2])
def test_isub(self):
self.v1 -= self.v2
self.assertTrue(self.v1, [2, 2, 0])
def test_imul(self):
true = self.assertTrue
self.v1 *= 2
self.v2 *= -2
true(self.v1.value, [2, 2, 2])
true(self.v2.value, [2, 2, -2])
def test_idiv(self):
true = self.assertTrue
self.v1 /= 0.5
self.v2 /= -0.5
true(self.v1.value, [2, 2, 2])
true(self.v2.value, [2, 2, -2])
def test_repr(): assert repr(Vector(1,2)) == "Vector(1, 2)"
def to_vector(vector):
return Vector(vector)
def _get_axial_vector(self, pos_type):
return Vector(getattr(self.node1, pos_type), getattr(self.node2, pos_type))
class EigenStuff:
def __init__(self, canvas, master, evRow, probRow, color, num, ebWidth):
self.canvas = canvas['canvas']
self.cDiag = canvas['diagonal']
self.color = color
self.evLabel = Label(master, text='', fg=color, width=20)
self.evLabel.grid(row=evRow, columnspan=2)
self.probLabel = Label(master, text='', fg=color, width=20)
self.probLabel.grid(row=probRow, columnspan=2)
self.ev = self.canvas.create_line(0,0,0,0,fill=color, dash=[10,15], tag='eigen')
self.projEv = self.canvas.create_line(0,0,0,0, fill='cyan', arrow='last', width=1, tag='proj')
self.projEvDash = self.canvas.create_line(0,0,0,0, fill='cyan', dash=[10,5], width=1, tag='proj')
self.eb = Vector(canvas, master, None, color, ebWidth, 'eigen')
self.num = num #for labels
self.vals = None
def setEvLabel(self, eigenVal):
if eigenVal.imag == 0:
self.evLabel['text'] = "λ" + str(self.num) + " = " + str(round(eigenVal.real, 2))
else:
self.evLabel['text'] = "λ" + str(self.num) + " = " + str(
round(eigenVal.real, 2)) + ' + ' + str(round(eigenVal.imag, 2)) + 'i'
def setProbLabel(self, prob):
self.probLabel['text'] = 'P' + str(self.num) + ' = ' + str(round(prob, 2))
def setVals(self, evs):
self.vals = evs
self.eb.setVals(evs)
def drawLine(self, unitSize):
cWidth = int(self.canvas['width'])
cHeight = int(self.canvas['height'])
x1, y1 = (-self.cDiag * self.vals).vals()
x2, y2 = (self.cDiag * self.vals).vals()
self.canvas.coords(self.ev,
cWidth/2 + x1*unitSize, cHeight/2 - y1*unitSize,
cWidth/2 + x2*unitSize, cHeight/2 - y2*unitSize)
def setEvLabelBackground(self, color):
self.evLabel['bg'] = color
def probView(self, view):
if view:
self.probLabel.grid()
else:
self.probLabel.grid_remove()
def drawProjections(self, x2, y2, amp, unitSize):
cWidth = int(self.canvas['width'])
cHeight = int(self.canvas['height'])
x, y = (amp * self.vals).vals()
self.canvas.coords(self.projEv,
cWidth/2, cHeight/2,
cWidth/2 + x*unitSize,
cHeight/2 + -y*unitSize
)
self.canvas.coords(self.projEvDash,
cWidth/2+x*unitSize,
cHeight/2 + -y*unitSize,
cWidth/2 + x2*unitSize,
cHeight/2 + -y2*unitSize
)
def drawEigenBasis(self, unitSize):
self.eb.drawVector(unitSize)
def setComplexMode(self, complexMode):
self.eb.setComplexMode(complexMode)
self.canvas.coords(self.ev, 0, 0, 0, 0)
class OpenGLComponent(Axon.AdaptiveCommsComponent.AdaptiveCommsComponent):
"""\
OpenGLComponent(...) -> create a new OpenGL component (not very useful though; it is rather designed to inherit from).
This components implements the interaction with the OpenGLDisplay
service that is needed to setup, draw and move an object using OpenGL.
Keyword arguments:
- size -- three dimensional size of component (default=(0,0,0))
- rotation -- rotation of component around (x,y,z) axis (defaul=(0,0,0))
- scaling -- scaling along the (x,y,z) axis (default=(1,1,1))
- position -- three dimensional position (default=(0,0,0))
- name -- name of component (mostly for debugging, default="nameless")
"""
Inboxes = {
"inbox": "not used",
"control": "For shutdown messages",
"callback": "for the response after a displayrequest",
"events": "Input events",
"position" : "receive position triple (x,y,z)",
"rotation": "receive rotation triple (x,y,z)",
"scaling": "receive scaling triple (x,y,z)",
"rel_position" : "receive position triple (x,y,z)",
"rel_rotation": "receive rotation triple (x,y,z)",
"rel_scaling": "receive scaling triple (x,y,z)",
}
Outboxes = {
"outbox": "not used",
"signal": "For shutdown messages",
"display_signal" : "Outbox used for communicating to the display surface",
"position" : "send position status when updated",
"rotation": "send rotation status when updated",
"scaling": "send scaling status when updated",
}
def __init__(self, **argd):
"""x.__init__(...) initializes x; see x.__class__.__doc__ for signature"""
super(OpenGLComponent, self).__init__()
# get transformation data and convert to vectors
self.size = Vector( *argd.get("size", (0,0,0)) )
self.position = Vector( *argd.get("position", (0,0,0)) )
self.rotation = Vector( *argd.get("rotation", (0.0,0.0,0.0)) )
self.scaling = Vector( *argd.get("scaling", (1,1,1) ) )
# for detection of changes
self.oldrot = Vector()
self.oldpos = Vector()
self.oldscaling = Vector()
self.transform = Transform()
# name (mostly for debugging)
self.name = argd.get("name", "nameless")
# create clock
self.clock = pygame.time.Clock()
self.frametime = 0.0
# get display service
displayservice = OpenGLDisplay.getDisplayService()
# link display_signal to displayservice
self.link((self,"display_signal"), displayservice)
def main(self):
# create display request
self.disprequest = { "OGL_DISPLAYREQUEST" : True,
"objectid" : id(self),
"callback" : (self,"callback"),
"events" : (self, "events"),
"size": self.size
}
# send display request
self.send(self.disprequest, "display_signal")
# inital apply trasformations
self.applyTransforms()
# setup function from derived objects
self.setup()
# initial draw to display list
self.redraw()
# wait for response on displayrequest
while not self.dataReady("callback"): yield 1
self.identifier = self.recv("callback")
while 1:
yield 1
while self.dataReady("control"):
cmsg = self.recv("control")
# if isinstance(cmsg, producerFinished) or isinstance(cmsg, shutdownMicroprocess):
# self.send(cmsg, "signal")
# return
self.frametime = float(self.clock.tick())/1000.0
self.handleMovement()
self.handleEvents()
self.applyTransforms()
# frame function from derived objects
self.frame()
def applyTransforms(self):
""" Use the objects translation/rotation/scaling values to generate a new transformation Matrix if changes have happened. """
# generate new transformation matrix if needed
if self.oldscaling != self.scaling or self.oldrot != self.rotation or self.oldpos != self.position:
self.transform = Transform()
self.transform.applyScaling(self.scaling)
self.transform.applyRotation(self.rotation)
self.transform.applyTranslation(self.position)
if self.oldscaling != self.scaling:
self.send(self.scaling.toTuple(), "scaling")
self.oldscaling = self.scaling.copy()
if self.oldrot != self.rotation:
self.send(self.rotation.toTuple(), "rotation")
self.oldrot = self.rotation.copy()
if self.oldpos != self.position:
self.send(self.position.toTuple(), "position")
self.oldpos = self.position.copy()
# send new transform to display service
transform_update = { "TRANSFORM_UPDATE": True,
"objectid": id(self),
"transform": self.transform
}
self.send(transform_update, "display_signal")
def handleMovement(self):
""" Handle movement commands received by corresponding inboxes. """
while self.dataReady("position"):
pos = self.recv("position")
self.position = Vector(*pos)
while self.dataReady("rotation"):
rot = self.recv("rotation")
self.rotation = Vector(*rot)
while self.dataReady("scaling"):
scaling = self.recv("scaling")
self.scaling = Vector(*scaling)
while self.dataReady("rel_position"):
self.position += Vector(*self.recv("rel_position"))
while self.dataReady("rel_rotation"):
self.rotation += Vector(*self.recv("rel_rotation"))
while self.dataReady("rel_scaling"):
self.scaling = Vector(*self.recv("rel_scaling"))
##
# Methods to be used by derived objects
##
def addListenEvents(self, events):
"""\
Sends listening request for pygame events to the display service.
The events parameter is expected to be a list of pygame event constants.
"""
for event in events:
self.send({"ADDLISTENEVENT":event, "objectid":id(self)}, "display_signal")
def removeListenEvents(self, events):
"""\
Sends stop listening request for pygame events to the display service.
The events parameter is expected to be a list of pygame event constants.
"""
for event in events:
self.send({"REMOVELISTENEVENT":event, "objectid":id(self)}, "display_signal")
def redraw(self):
"""\
Invoke draw() and save its commands to a newly generated displaylist.
The displaylist name is then sent to the display service via a
"DISPLAYLIST_UPDATE" request.
"""
# display list id
displaylist = glGenLists(1);
# draw object to its displaylist
glNewList(displaylist, GL_COMPILE)
self.draw()
glEndList()
dl_update = { "DISPLAYLIST_UPDATE": True,
"objectid": id(self),
"displaylist": displaylist
}
self.send(dl_update, "display_signal")
##
# Method stubs to be overridden by derived objects
##
def handleEvents(self):
"""
Method stub
Override this method to do event handling inside.
Should look like this::
while self.dataReady("events"):
event = self.recv("events")
# handle event ...
"""
pass
def draw(self):
"""
Method stub
Override this method for drawing. Only use commands which are
needed for drawing. Will not draw directly but be saved to a
displaylist. Therefore, make sure not to use any commands which
cannot be stored in displaylists (unlikely anyway).
"""
pass
def setup(self):
"""
Method stub
Override this method for component setup.
It will be called on the first scheduling of the component.
"""
pass
def frame(self):
"""
Method stub
Override this method for operations you want to do every frame.
It will be called every time the component is scheduled. Do not
include infinite loops, the method has to return every time it
gets called.
"""
pass
try:
import simplegui
except:
import SimpleGUICS2Pygame.simpleguics2pygame as simplegui
from Vector import Vector
from LineMove import LineMove
myLine = LineMove((Vector(0, 0)), (Vector(600, 0)))
myLine2 = LineMove((Vector(0, 0)), (Vector(700, 0)))
frame = simplegui.create_frame("Half-Life 3", 500, 500)
frame.set_draw_handler(myLine.update)
frame.start()
def handleEvents(self):
while self.dataReady("events"):
event = self.recv("events")
if event.type == pygame.MOUSEBUTTONDOWN and self.identifier in event.hitobjects:
self.rotation += Vector(0,0,10)
self.rotation %= 360
def __init__(self, center_x, center_y, restitution):
self.center = Vector(center_x, center_y)
self.restitution = restitution
self.velocity = Vector(0, 0)
self.acceleration = Vector(0, 0)
self.collision_mask = (Body, )
def sum_vector(vector1, vector2):
return Vector(vector1.psi + vector2.psi)
#!/usr/bin/env python
import sys
from Vector import Vector
V1 = Vector(1, 1)
V2 = Vector(2, 2)
try:
V3 = V1 + V2
except TypeError:
print "Add Test failed! Not defined"
try:
assert (V3.getX() == 3 and V3.getY() == 3)
print "Add Test succeeded!"
except AssertionError:
print "Add Test failed!"
try:
V3 = V1 - V2
except TypeError:
print "Subtraction Test failed! Not defined"
try:
assert (V3.getX() == -1 and V3.getY() == -1)
print "Subtraction Test succeeded!"
except AssertionError:
print "Subtraction Test failed!"
def updateAcceleration(self):
if self.inAir and not self.jumping:
self.gravity = Vector(0, 3)
else:
self.gravity = Vector(0, 0)
def Euler(x, y, z):
# Z-->X-->Y
rotX = Quaternion.AxisAngle(Vector(1, 0, 0), x)
rotY = Quaternion.AxisAngle(Vector(0, 1, 0), y)
rotZ = Quaternion.AxisAngle(Vector(0, 0, 1), z)
return rotY * rotX * rotZ
class Player(Sprite):
def __init__(self, image, image_alternate, columns, rows):
super().__init__(image, image_alternate, columns, rows)
pygame.mixer.pre_init(
44100, -16, 1, 512
) # Prevents Pygame sound delay: https://www.reddit.com/r/pygame/comments/8gsoue/delayed_audio_in_pygame/
self.lives = 2
self.moving = False
self.dead = False
self.shooting = False
self.jumping = False
#self.rolling = False
self.invincible = False
self.bullets = []
self.velocity = Vector(0, 0)
self.pos = Vector(SCREENWIDTH / 2, SCREENHEIGHT - 20)
self.gravity = Vector(0, 0)
self.frameCounter = 0
self.deadCounter = 0
self.inAir = False
# Sound effects for the player
__location__ = os.path.realpath(
os.path.join(os.getcwd(), os.path.dirname(__file__)))
soundeffect = os.path.join(__location__, 'Sounds/classic_hurt.ogg')
self.oof = simplegui._load_local_sound(soundeffect)
__location__ = os.path.realpath(
os.path.join(os.getcwd(), os.path.dirname(__file__)))
soundeffect = os.path.join(__location__, 'Sounds/gunSound.ogg')
self.pew = simplegui._load_local_sound(soundeffect)
self.pew.set_volume(.25)
def update(self):
if self.frameCounter % 10 == 0:
self.updateFrame()
self.updateVel()
self.updateAcceleration()
self.pos += self.velocity
# Checks to stop player going off the screen
if self.pos.getP()[1] > SCREENHEIGHT - 100:
self.pos = Vector(self.pos.getP()[0], 620)
elif self.pos.getP()[1] < 0:
self.pos = Vector(self.pos.getP()[0], 1)
self.jumping = False
if self.pos.getP()[0] > SCREENWIDTH - 25:
self.pos = Vector(1255, self.pos.getP()[1])
elif self.pos.getP()[0] < 25:
self.pos = Vector(25, self.pos.getP()[1])
self.frameCounter += 1
# Custom draw method for the player sprite as the sprite sheet is more complex and had some issues
def draw(self, canvas):
if self.right:
centreDest = (self.pos.getP()[0], self.pos.getP()[1])
centerSource = [
self.frameSize[i] * self.currentFrame[i] + self.frameCentre[i]
for i in [0, 1]
]
canvas.draw_image(self.image, centerSource, self.frameSize,
centreDest, self.sizeDest)
else:
centreDest = (self.pos.getP()[0], self.pos.getP()[1])
centerSource = [
(self.width - (self.frameSize[0] * self.currentFrame[0] +
self.frameCentre[0])),
(self.frameSize[1] * self.currentFrame[1] +
self.frameCentre[1])
]
canvas.draw_image(self.alternateimage, centerSource,
self.frameSize, centreDest, self.sizeDest)
# Updating the frame depending on the animation
def updateFrame(self):
self.currentFrame[0] += 1
# Death animation
if self.lives <= 0:
self.deadCounter += 1
self.currentFrame[1] = 8
if self.currentFrame[0] > 5:
self.dead = True
# Rolling Animation (Not used in final game)
#elif self.rolling:
# self.currentFrame[1] = 7
# # Run rolling animation
# if self.currentFrame[0] >= 4:
# self.currentFrame[0] = 0
# self.rolling = False
# Jumping while not shooting
elif self.jumping and not self.shooting:
self.currentFrame[1] = 5
if self.currentFrame[0] >= 6:
self.currentFrame[0] = 4
# Shooting while still
elif self.shooting and not self.moving:
self.currentFrame[1] = 2
if self.currentFrame[0] >= 8:
self.currentFrame[0] = 0
# Shooting while moving
elif self.moving and self.shooting:
self.currentFrame[1] = 4
if self.currentFrame[0] >= 8:
self.currentFrame[0] = 0
# Moving while not shooting
elif self.moving and not self.shooting:
self.currentFrame[1] = 3
if self.currentFrame[0] >= 8:
self.currentFrame[0] = 0
# Doing nothing
else:
self.currentFrame[1] = 1
if self.currentFrame[0] >= 8:
self.currentFrame[0] = 0
# Updating the velocity
def updateVel(self):
if self.moving:
# Change horizontal velocity
if self.right:
self.velocity = Vector(5, self.velocity.getP()[1])
else:
self.velocity = Vector(-5, self.velocity.getP()[1])
self.velocity = Vector(self.velocity.getP()[0] * 0.94,
self.velocity.getP()[1])
self.velocity += self.gravity
if self.jumping:
self.velocity = Vector(self.velocity.getP()[0], -10)
# Updating the acceleration
def updateAcceleration(self):
if self.inAir and not self.jumping:
self.gravity = Vector(0, 3)
else:
self.gravity = Vector(0, 0)
# Spawns a non hostile bullet
def shoot(self):
self.pew.play()
xStart, yStart = self.pos.getP()
__location__ = os.path.realpath(
os.path.join(os.getcwd(), os.path.dirname(__file__)))
imagenormal = os.path.join(__location__,
'images/sprites/boomerangbullet.png')
imagealternate = os.path.join(
__location__, 'images/sprites/boomerangbulletleft.png')
# Sets velocity of bullet repective to direction the player is facing
if self.right:
vel = Vector(6, 0)
right = True
xStart += 60
else:
vel = Vector(-6, 0)
right = False
xStart -= 60
startPos = Vector(xStart, yStart + 30)
return Bullet(startPos, vel, False, "bullet", right, imagenormal,
imagealternate, 8, 1)
# Following methods to be called in interaction class after user inputs to switch boolean variables
def startMoving(self):
if self.lives > 0:
self.moving = True
def startShooting(self):
if self.lives > 0:
self.shooting = True
self.bullets.append(self.shoot())
self.currentFrame[0] = 2
#def startRoll(self):
# if self.lives > 0:
# self.rolling = True
def startJump(self):
if self.lives > 0:
self.jumping = True
self.inAir = True
# Called from interaction class when user input ends
def stopJump(self):
if self.lives > 0:
self.jumping = False
def stopMoving(self):
if self.lives > 0:
self.moving = False
def stopShooting(self):
if self.lives > 0:
self.shooting = False
# Called from interaction class following collision
def removeLife(self):
if not self.invincible and self.lives > 0:
self.lives -= 1
self.oof.set_volume(1)
self.oof.play()
if self.lives == 0:
self.currentFrame[0] = 0
from matrix import Matrix from Vector import Vector # m0 = Matrix((2, 3)) # m1 = Matrix([[1,3,4],[5,6,7]]) # m2 = Matrix([[1,3,4],[5,6,7]], (2, 3)) # A=Matrix([[1,4,-2],[3,5,-6]]) # B=Matrix([[5,2,8,-1], [3,6,4,5], [-2,9,7,-3]]) # C = A * B # print(C.data) A=Matrix([[1, -1,2], [0, -3, 1]]) B=Vector([2,1,0]) C = B*A print(C.values)
'''
Created on Nov 21, 2016
@author: iaskarov
'''
from Vector import Vector
from VectorOperations import vadd, vsubtract, vcomponent, vdot, vangle, pythagorean, sohcahtoa, vcross, is_vparallel, vprojection, is_vorthogonal, vscalar_product
if __name__ == '__main__':
v1 = Vector([1.5, 9.547, 3.691])
v2 = Vector([-6.007, 0.124, 5.772])
cross = vcross(v1.coordinates, v2.coordinates)
print cross.magnitude / 2
def close(enemy, moving_point):
p = Vector(moving_point[0][0], moving_point[0][1]) - enemy.position
return abs(p.x) < Constants.CONTOUR_EPS and abs(
p.y) < Constants.CONTOUR_EPS
def calculateEstPosition(self, lastTransmittedSample, currentTime):
deltaTime = currentTime - lastTransmittedSample.sample.time
deltaTimeVector = Vector(deltaTime, deltaTime, deltaTime)
deltaPosition = lastTransmittedSample.velocity * deltaTimeVector
estimatedPosition = lastTransmittedSample.sample.position + deltaPosition
return estimatedPosition
def test_addition(): v1 = Vector(1,2) v2 = Vector(1,2) v3 = v1 + v2 assert v3.x == 2 assert v3.y == 4
def GeneratingOneImage(particle_center_x, particle_center_y, R, rho, nm, nP,
pol_X, pol_Y, pol_Z, pol_Vx, pol_Vy, pol_Vz, resolution,
lens_size, scattering_number_of_iterations):
"""
This method generates an image based on the rays propagated from the light source, refracted through a particle,
and towards a camera lens.
:param particle_center_x: Particle center x coordinate.
:param particle_center_y: Particle center y coordinate.
:param R: Particle radius [m].
:param rho: Ray density per square meter.
:param nm: Refractive index of the medium before ray impact.
:param nP: Refractive index of the medium after ray impact.
:param pol_X: Polarization
:param pol_Y: Polarization
:param pol_Z: Polarization
:param pol_Vx: Polarization
:param pol_Vy: Polarization
:param pol_Vz: Polarization
:param resolution: Resolution of the generated image. Assuming quadratic image.
:param lens_size: Camera lens size [m], assuming quadratic lens.
:param scattering_number_of_iterations: # Maximum number of iterations the rays are scattered within the particle.
:return: The particle captures by the camera as an image.
"""
# Produce one image.
c = Point(0, 0, 0)
bead = ParticleSpherical(c, R, nm, nP)
pixels = np.zeros(resolution * resolution)
# Coordinates for the rays hitting the sphere
x, y = GeneratingCoordinates(rho, R, 0, 0)
number_of_rays = np.size(x)
P = np.ones(number_of_rays) # Power[W]
z = np.zeros(number_of_rays)
Vx = np.zeros(number_of_rays)
Vy = np.zeros(number_of_rays)
Vz = np.ones(number_of_rays)
v = Vector(x * R, y * R, z, Vx, Vy, Vz)
pol = Vector(pol_X, pol_Y, pol_Z, pol_Vx, pol_Vy, pol_Vz)
pol = v.mtimes(pol)
pol = pol.versor()
r = Ray(v, P, pol)
s = bead.scattering(r=r, N=scattering_number_of_iterations)
plane_normal = np.array([0, 0, 1]) # Define lens plane
plane_point = np.array([0, 0, 1]) # Any point on the plane
exiting_rays = s[-1]["t"]
ray_power = exiting_rays.P
for i in range(0, np.size(exiting_rays.v.Vx) - 1):
ray_direction = np.array(
[exiting_rays.v.Vx[i], exiting_rays.v.Vy[i], exiting_rays.v.Vz[i]])
ray_point = np.array([
exiting_rays.v.X[i], exiting_rays.v.Y[i], exiting_rays.v.Z[i]
]) + np.array([particle_center_x, particle_center_y, 0])
psi = LinePlaneCollision(plane_normal, plane_point, ray_direction,
ray_point, lens_size)
if psi is not None: # Ray hits the camera lens
x_pixel = np.round(
(psi[0] + lens_size / 2) / lens_size * (resolution - 1))
y_pixel = np.round(
(psi[1] + lens_size / 2) / lens_size * resolution)
pixel_index = y_pixel * resolution + x_pixel
pixels[int(pixel_index)] = pixels[int(pixel_index)] + ray_power[i]
# Normalize the sphere-rays
if max(pixels) > 0:
pixels = pixels / max(pixels)
return np.reshape(pixels, (resolution, resolution))
def test_create_instance_with_defaults(): v1 = Vector() assert v1.x == 0 assert v1.y == 0
def test_coodinate_conversion():
#Testing quadrant 1 coordinate conversion
vec = Vector(vector=(1, 1))
guiCoord = vec.getGUIVector1()
assert guiCoord[0] == 261
assert guiCoord[1] == 259
#Testing quadrant 2 coordinate conversion
vec = Vector(vector=(-3, 10))
guiCoord = vec.getGUIVector1()
assert guiCoord[0] == 257
assert guiCoord[1] == 250
#Testing quadrant 3 coordinate conversion
vec = Vector(vector=(-5, -10))
guiCoord = vec.getGUIVector1()
assert guiCoord[0] == 255
assert guiCoord[1] == 270
#Testing quadrant 4 coordinate conversion
vec = Vector(vector=(5, -10))
guiCoord = vec.getGUIVector1()
assert guiCoord[0] == 265
assert guiCoord[1] == 270
def test_abs(): v1 = Vector(3,4) assert abs(v1) == 5
def generate_new_enemys(enemys):
for i in range(len(enemys), Constants.ENEMYS_NUM):
enemys.append(
Enemy(enemy_points[random.randint(0,
len(enemy_points) - 1)]))
return enemys
video_capture = cv2.VideoCapture(0)
ret, average_frame = video_capture.read()
average_frame = cv2.cvtColor(average_frame, cv2.COLOR_BGR2GRAY)
moving_provider = MovingProvider(average_frame)
HEIGTH, WIDTH = average_frame.shape
CENTER = Vector(WIDTH // 2, HEIGTH // 2)
base = Base(CENTER, CENTER, WIDTH // 2, HEIGTH // 2)
enemy_points = [
Vector(0, 0),
Vector(0, HEIGTH),
Vector(WIDTH, 0),
Vector(WIDTH, HEIGTH)
]
enemys = []
for i in range(Constants.ENEMYS_NUM):
enemys.append(Enemy(enemy_points[random.randint(0,
len(enemy_points) - 1)]))
while True:
# Capture frame-by-frame
def generate(self, max_rooms, random_percentage, screen_size):
"""
Generates a list of rooms with a size of `max_rooms`
Keyword arguments:
max_rooms - an integer with the maximum number of rooms wanted
random_percentage - the percent of rooms to keep for adding randomly to the map
screen_size - a tuple of ints that represent the screen size
"""
self.__rooms = []
linear_rooms = int((max_rooms + 1) * (1 - random_percentage))
random_rooms = max_rooms - linear_rooms
center = Vector(screen_size[0] / 2, screen_size[1] / 2)
for i in range(linear_rooms):
if (i == 0):
r = Room(
center,
random.randrange(self.__min_width, self.__max_width,
self.__tile_size),
random.randrange(self.__min_height, self.__max_height,
self.__tile_size), "start")
elif (i == linear_rooms - 1):
r = Room(
center,
random.randrange(self.__min_width, self.__max_width,
self.__tile_size),
random.randrange(self.__min_height, self.__max_height,
self.__tile_size), "end")
else:
r = Room(
center,
random.randrange(self.__min_width, self.__max_width,
self.__tile_size),
random.randrange(self.__min_height, self.__max_height,
self.__tile_size))
heading = self.__getRandomHeading()
self.__rooms.append(r)
if (i > 0):
while (self.__rooms[i - 1].headingExists(heading)):
heading = self.__getRandomHeading()
self.__rooms[i - 1].addNeighbour(r, heading)
r.addNeighbour(self.__rooms[i - 1],
self.__invertHeading(heading))
for i in range(random_rooms):
chosen_room = self.__rooms[random.randint(0,
len(self.__rooms) - 1)]
while (len(chosen_room.getEmptyNeighbours()) == 0
or chosen_room.isStart() or chosen_room.isEnd()):
chosen_room = self.__rooms[random.randint(
0,
len(self.__rooms) - 1)]
heading = self.__getRandomHeading()
while (chosen_room.headingExists(heading)):
heading = self.__getRandomHeading()
r = Room(
center,
random.randrange(self.__min_width, self.__max_width,
self.__tile_size),
random.randrange(self.__min_height, self.__max_height,
self.__tile_size))
chosen_room.addNeighbour(r, heading)
r.addNeighbour(chosen_room, self.__invertHeading(heading))
self.__rooms.append(r)
self.__addEnemies()
print("Map Generated")
def test_subtraction(): v1 = Vector(2,4) v2 = Vector(1,2) v3 = v1 - v2 assert v3.x == 1 assert v3.y == 2
def clickBtn(self):
self.clicked = True
self.trigger()
# instead of using this the value should be bracketed to mean that it's a single arguement value
#instances of all types, without brackets it points to a class but doesnt make an instance
obj_explosion_spriteS=Spritesheet(Img_explosion,9,9,100,100,100,100,[9,9])
obj_usr_car_spriteS=Spritesheet(Img_user_Car,5,5,139,70,139,70,[4,4])
obj_user_car= User_Car(Vector((75,random.randrange(150,530))))
obj_Enemey_car=Enemy_Car(Vector((random.randrange(0,400),random.randrange(150,450))),Vector((1,0)),img_cars_array[random.randrange(0,5)])
obj_Tree=TreeAndWall()
obj_Kbd=keyboard()
obj_Int=Interaction(obj_user_car,obj_Kbd)
def click(pos):
for x in range(0, len(arrayButton)):
if(arrayButton[x].contains(pos)):
def test_multiplication(): v1 = Vector(1,2) v2 = v1 * 2 assert v2.x == 2 assert v2.y == 4
def setUp(self):
self.v1 = Vector(1, 2)
self.v2 = Vector(2, 1)