def normalize_vector(vector):
v = Vector(vector)
vect_mag = v.vector_magnitude()
for i in range(len(vector)):
vector[i] = vector[i] / vect_mag
return vector
def second_level(self):
while len(self.monsters) != 0:
time.sleep(1)
self.change_level(([
Vector(0, 200),
Vector(400, 200),
Vector(400, 500),
Vector(1000, 500)
], ))
tree = 'Tree'
skeleton = 'Skeleton'
golem = 'Golem'
time.sleep(7)
for i in range(10):
self.lock.acquire()
self.monsters.append(Monster(self.road[0], tree))
self.lock.release()
time.sleep(0.5)
self.lock.acquire()
self.monsters.append(Monster(self.road[0], skeleton))
self.lock.release()
time.sleep(1)
self.lock.acquire()
self.monsters.append(Boss(self.road[0], golem))
self.lock.release()
time.sleep(5)
for i in range(10):
self.lock.acquire()
self.monsters.append(Monster(self.road[0], tree))
self.lock.release()
time.sleep(1)
self.lock.acquire()
self.monsters.append(Monster(self.road[0], skeleton))
self.lock.release()
self.monsters.append(Boss(self.road[0], golem))
def projection_onto_orthonorm_subspace(vector, orthonorm_basis):
for i in range(len(orthonorm_basis)):
scalar = dot_product(vector, orthonorm_basis[i])
v = Vector(orthonorm_basis[i])
scal_vect_product = v.vectorScalarProduct(scalar)
if i == 0:
result_vector = scal_vect_product
else:
result_vector = vector_addition(result_vector, scal_vect_product)
return result_vector
def least_square_approx(matrix_A, vecotr_b):
m = Matrix(matrix_A)
trans_A = m.transpose_of_a_matrix() # A^T
Atrans_x_A = matrix_multiplication(trans_A, matrix_A) # A^T * A
v = Vector(vecotr_b)
Atrans_x_bvect = v.matrix_vector_product(trans_A) # A^T * vector_b
# finding solution for A^TA x* = A^T b
resultant_vector = gauss_jordan_elimination(Atrans_x_A,
Atrans_x_bvect) # return x*
return resultant_vector
def __init__(self):
path = Game.conf()
config.create_config(path)
self.config = config.get_config(path)
self.bullets = []
self.road = ([Vector(0, 350), Vector(1000, 350)], )
self.player = Player()
self.level = 0
self.tower = None
self.game_level = 0
self.monsters = []
self.lock = threading.Lock()
self.spawn = threading.Thread(target=self.create, daemon=True)
self.spell = None
def third_level(self):
tree = 'Tree'
skeleton = 'Skeleton'
dragon = 'Dragon'
golem = 'Golem'
while len(self.monsters) != 0:
time.sleep(1)
self.change_level(([Vector(0, 600),
Vector(1000,
600)], [Vector(1000, 0),
Vector(1000, 600)]))
self.player.get_coins(100)
time.sleep(10)
for i in range(8):
self.lock.acquire()
self.monsters.append(Monster(self.road[0], tree))
self.lock.release()
self.lock.acquire()
self.monsters.append(Monster(self.road[0], tree))
self.monsters.append(Monster(self.road[1], tree))
self.lock.release()
time.sleep(3)
for i in range(6):
self.lock.acquire()
self.monsters.append(Monster(self.road[0], skeleton))
self.lock.release()
time.sleep(1)
self.lock.acquire()
self.monsters.append(Monster(self.road[1], skeleton))
self.lock.release()
for i in range(8):
self.lock.acquire()
self.monsters.append(Monster(self.road[0], skeleton))
self.lock.release()
time.sleep(1)
self.lock.acquire()
self.monsters.append(Monster(self.road[1], skeleton))
self.lock.release()
time.sleep(3)
self.lock.acquire()
self.monsters.append(Boss(self.road[1], dragon))
self.lock.release()
while len(self.monsters) != 0:
time.sleep(1)
self.lock.acquire()
self.monsters.append(Boss(self.road[1], golem))
self.monsters.append(Boss(self.road[0], golem))
self.lock.release()
def move(self):
vector = self.target.location - self.location
if self.target.is_dead():
self.hit = True
if vector.length < self.target.hitbox:
if self.target not in self.visited:
self.target.get_damage(self)
self.visited.append(self.target)
self.pounce -= 1
else:
self.hit = True
if self.pounce == 0:
self.hit = True
for creature in self.enemies:
if creature in self.visited:
continue
vector = creature.location - self.location
if vector.length < self.pounce_range:
self.target = creature
break
self.direction = vector.angle
delta = Vector(
math.cos(self.direction) * self.speed,
self.speed * math.sin(self.direction))
self.location = self.location + delta
def update(self):
if not obj_user_car.Collisonwall():
if self.keyboard.up and self.keyboard.right:
self.user_car.vel.add(Vector((0.05, -0.05)))
elif self.keyboard.down and self.keyboard.right:
self.user_car.vel.add(Vector((0.05, 0.05)))
elif self.keyboard.left:
self.user_car.vel.add(Vector((-0.05, 0)))
elif self.keyboard.right:
self.user_car.vel.add(Vector((0.05, 0)))
else:
self.user_car.vel = Vector(
(1, 0)) #if nothing is done then keep moving forward
else:
#call game crash
#then game over interface
obj_spriteS.collision = True
def __init__(self, start, damage, enemy):
self.location = Vector(start.X, start.Y)
self.damage = damage
self.target = enemy
self.direction = math.pi / 2
self.hit = False
self.speed = int(config.get(Game.conf(), 'Archers', 'speed'))
self.image = 'arrow'
def __init__(self, damage, location, enemy, slow):
self.damage = damage
self.location = Vector(location.X, location.Y)
self.target = enemy
self.slow = slow
self.speed = int(config.get(Game.conf(), 'Poison', 'speed'))
self.hit = False
self.direction = math.pi / 2
self.image = 'poison'
def move(self):
vector = self.target.location - self.location
if vector.length < self.target.hitbox:
self.target.get_damage(self)
self.hit = True
self.direction = vector.angle
self.location += Vector(
math.cos(self.direction) * self.speed,
math.sin(self.direction) * self.speed)
def fourth_level(self):
tree = 'Tree'
skeleton = 'Skeleton'
dragon = 'Dragon'
golem = 'Golem'
while len(self.monsters) != 0:
time.sleep(1)
self.change_level(([Vector(0, 700), Vector(1000, 700)], [
Vector(1000, 0),
Vector(1000, 400),
Vector(520, 400),
Vector(520, 700),
Vector(1000, 700)
]))
self.player.get_coins(100)
time.sleep(10)
for i in range(10):
self.lock.acquire()
self.monsters.append(Monster(self.road[0], skeleton))
self.lock.release()
time.sleep(0.4)
for i in range(10):
self.lock.acquire()
self.monsters.append(Monster(self.road[1], skeleton))
self.lock.release()
time.sleep(0.4)
self.lock.acquire()
self.monsters.append(Monster(self.road[1], tree))
self.lock.release()
time.sleep(0.8)
self.lock.acquire()
self.monsters.append(Boss(self.road[0], dragon))
self.lock.release()
time.sleep(3)
self.lock.acquire()
self.monsters.append(Boss(self.road[1], dragon))
self.lock.release()
time.sleep(5)
self.monsters.append(Boss(self.road[1], golem))
for i in range(10):
self.lock.acquire()
self.monsters.append(Monster(self.road[0], skeleton))
self.lock.release()
time.sleep(0.2)
for i in range(10):
self.lock.acquire()
self.monsters.append(Monster(self.road[1], skeleton))
self.lock.release()
time.sleep(0.3)
self.lock.acquire()
self.monsters.append(Monster(self.road[1], tree))
self.lock.release()
time.sleep(0.5)
self.lock.acquire()
self.monsters.append(Boss(self.road[1], golem))
self.monsters.append(Boss(self.road[0], golem))
self.lock.release()
def __init__(self, location):
self.location = Vector(location.X, location.Y)
self.damage = int(config.get(Game.conf(), 'Archers', 'damage_1'))
self.level = 0
self.price = int(config.get(Game.conf(), 'Archers', 'price'))
self.range = int(config.get(Game.conf(), 'Archers', 'range_1'))
self.upg_price = int(config.get(Game.conf(), 'Archers', 'lvl_up'))
self.attack_speed = int(
config.get(Game.conf(), 'Archers', 'attack_speed_1'))
self.iter = 1
self.image = 'archers'
class Coin(PhysicalObject):
'''
A class that implements the methods for drawing a coin.
'''
def __init__(self, radius, position, velocity, scaling, relWidth, relHeight, fillColour, massP, radiusP, muP, omegaP, positionXP, positionYP, centre):
self.fillColour = fillColour
self.radius = radius
self.onRoundabout = True
self.centre = centre
self.massP = massP
self.radiusP = radiusP
self.muP = muP
self.omegaP = omegaP
self.positionXP = positionXP
self.positionYP = positionYP
self.initialPosition = position
self.initialVelocity = velocity
PhysicalObject.__init__(self, position, velocity, None, scaling, relWidth, relHeight)
def display(self):
stroke(0, 0, 0)
fill(self.fillColour)
relXEllipse(self.position.x * self.scaling, self.position.y * self.scaling, self.relWidth * self.scaling, self.relHeight * self.scaling)
def initialise(self):
# Just call the __init__ function to reset everything.
self.__init__(self.radius, self.initialPosition, self.initialVelocity, self.scaling, self.relWidth, self.relHeight, self.fillColour, self.massP, self.radiusP, self.muP, self.omegaP, self.positionXP, self.positionYP, self.centre)
def updateFromInput(self):
self.mass = self.massP.value # Update mass from parameter
requiredVelocity = self.omegaP.value * self.radiusP.value
if self.onRoundabout:
# Update position and velocity from radius, only before it has slipped
self.position = self.centre + (self.position - self.centre).scaleAbs(self.radiusP.value)
self.velocity = Vector(-(self.position - self.centre).y, (self.position - self.centre).x).scaleAbs(requiredVelocity) # Always scale up the speed.
else:
self.velocity = self.velocity.scaleAbs(requiredVelocity)
self.mu = self.muP.value
def updateToOutput(self):
self.positionXP.setParameter((self.position - self.centre).x)
self.positionYP.setParameter((self.centre - self.position).y) # As up is negative, calculate centre - position
def findForce(self):
if self.onRoundabout and g * self.mu > self.omegaP.value ** 2 * self.radiusP.value:
return (self.centre - self.position).scaleAbs(abs(self.velocity) ** 2 / self.radiusP.value * self.mass)
else:
self.onRoundabout = False
return Vector(0, 0) # Not very realistic, but works well for demonstrations
def __init__(self, location):
self.location = Vector(location.X, location.Y)
self.damage = int(config.get(Game.conf(), 'Poison', 'damage_1'))
self.level = 0
self.price = int(config.get(Game.conf(), 'Poison', 'price'))
self.range = int(config.get(Game.conf(), 'Poison', 'range_1'))
self.attack_speed = int(
config.get(Game.conf(), 'Poison', 'attack_speed_1'))
self.slow = float(config.get(Game.conf(), 'Poison', 'slow_1'))
self.iter = 1
self.upg_price = int(config.get(Game.conf(), 'Poison', 'lvl_up'))
self.image = 'poisontw'
def __init__(self, location, damage, target, enemies, pounce):
self.location = Vector(location.X, location.Y)
self.damage = damage
self.target = target
self.enemies = enemies
self.pounce = pounce
self.speed = int(config.get(Game.conf(), 'Magic', 'speed'))
self.direction = math.pi / 2
self.hit = False
self.pounce_range = int(
config.get(Game.conf(), 'Magic', 'pounce_range'))
self.visited = []
self.image = 'magic'
def move(self):
vector = self.target.location - self.location
if self.target.is_dead():
self.hit = True
if vector.length < self.target.hitbox:
self.target.get_damage(self)
self.target.slow_down(self.slow)
self.hit = True
self.direction = vector.angle
delta = Vector(
math.cos(self.direction) * self.speed,
self.speed * math.sin(self.direction))
self.location = self.location + delta
def updateFromInput(self):
self.mass = self.massP.value # Update mass from parameter
requiredVelocity = self.omegaP.value * self.radiusP.value
if self.onRoundabout:
# Update position and velocity from radius, only before it has slipped
self.position = self.centre + (self.position - self.centre).scaleAbs(self.radiusP.value)
self.velocity = Vector(-(self.position - self.centre).y, (self.position - self.centre).x).scaleAbs(requiredVelocity) # Always scale up the speed.
else:
self.velocity = self.velocity.scaleAbs(requiredVelocity)
self.mu = self.muP.value
def move(self, player):
vector = self.points[self.next] - self.location
if self.next == len(self.points) - 1:
self.range = self.range_2
if vector.length < self.range:
self.next += 1
if self.next == len(self.points):
self.is_completed = True
player.health -= self.damage
return
self.dir = vector.angle
delta = Vector(
math.cos(self.dir) * self.speed * self.speed_percent,
math.sin(self.dir) * self.speed * self.speed_percent)
self.location += delta
def move(self, player):
if not self.finish:
vector = self.points[self.next] - self.location
if self.next == len(self.points) - 1:
self.range = self.range_2
if vector.length < self.range:
self.next += 1
if self.next == len(self.points):
self.finish = True
self.image = self.attack_images
self.animation = 5
return
self.dir = vector.angle
df = Vector(
math.cos(self.dir) * self.speed * self.speed_percent,
math.sin(self.dir) * self.speed * self.speed_percent)
self.location += df
else:
if self.animation == 36:
player.health -= self.damage
def _get_row(matrix, row):
return Vector(*matrix.entries[row])
if __name__ == "__main__":
from Vectors import Vector
import matplotlib.pyplot as plt
v1, v2, = Vector(10, 0), Vector(0, 10)
v1.plot(plt, c="r")
v2.plot(plt, c="g")
v1 += v2
v1.plot(plt, c="b")
plt.show()
pass
def __init__(self, pos):
self.pos = pos
self.vel = Vector()
self.dodged = 0
self.score = 0
(self.frameWidth, self.frameHeight), ((posX, posY)),
(self.dimX, self.dimY))
def nextFrame(
self): # value can be passed to change the animation stating point
# refers to the current frame index(assigning a value to it initially)
self.frameIndex[0] = (self.frameIndex[0] + 1) % self.columns
if self.frameIndex[0] == 0:
self.frameIndex[1] = (self.frameIndex[1] + 1
) % self.rows # y is referred to by the rows
# 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_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((3, 0)), img_cars_array[random.randrange(0, 5)])
obj_Tree = TreeAndWall()
obj_Kbd = keyboard()
obj_Int = Interaction(obj_user_car, obj_Kbd)
obj_spriteS = Spritesheet()
#parameter passed in as canvas
def _get_column(matrix, column):
return Vector(*[m[column] for m in matrix])
from Vectors import Vector import math testv = Vector(20, 20) testv.setMag(10 * math.sqrt(2)) print(testv)
