def draw_lives(num_lives):
first_x = camera.right - 20
y = camera.top + 20
for i in range(num_lives):
life = gamebox.from_circle(first_x - i * 40, y, 'red', 15)
# life = life_boxes[i]
# life.x = first_x - i*40
camera.draw(life)
def draw_bloops():
'''
draws all those bloops
:return: none
'''
global score
global w
global h
for coordinate in bloop_list:
camera.draw(
gamebox.from_circle(coordinate[0], coordinate[1], bloop_color,
int(w / 3)))
if game_status == "play":
for bloop in bloop_list:
if abs(bloop[0] - wackman[0].x) < w / 2:
if abs(bloop[1] - wackman[0].y) < h / 2:
bloop_list.pop(bloop_list.index(bloop))
score += 100
def __init__(self, kind=1, start=None):
"""Robot() makes a robot in the corer of a square grid, as does Robot(1)
Robot(2) makes a robot in the corer of a rectangular grid
Robot(3) makes a robot randomly placed in a rectangular grid
Robot(4) makes a robot randomly placed in a random mess of rooms
Robot('''
xxxxx
xxxxxxx
xx xxx xx
xxxx xxxx
xxxx xxxx
xx xxx xx
xxx xxx
xxxxxxx
xxxxx
''') makes a robot inside a smiley face
All versions have an optional "start position" parameter; if given
it should be an x,y coordinate, with (0,0) the top left corner
with x increasing to right and y to bottom"""
import pygame
self.scale = 35
try:
self.scale = min(pygame.display.Info().current_w,
pygame.display.Info().current_h) // 24
except:
pass
surf = pygame.surface.Surface((self.scale * 2, self.scale * 2),
pygame.SRCALPHA, 32)
pygame.draw.polygon(surf, (95, 47, 0), [(0, 0),
(self.scale, self.scale),
(0, self.scale * 2)])
pygame.draw.polygon(surf, (191, 255, 0), [(0, 0),
(self.scale, self.scale),
(self.scale * 2, 0)])
pygame.draw.polygon(surf, (63, 0, 63),
[(self.scale * 2, 0), (self.scale, self.scale),
(self.scale * 2, self.scale * 2)])
pygame.draw.polygon(surf, (207, 191, 63),
[(0, self.scale * 2), (self.scale, self.scale),
(self.scale * 2, self.scale * 2)])
pygame.draw.rect(
surf, (191, 191, 191),
pygame.rect.Rect(
self.scale // 4,
self.scale // 4,
6 * self.scale // 4,
6 * self.scale // 4,
))
self.room = gamebox.SpriteBox(0, 0, surf, None)
self.door = gamebox.from_color(0, 0, (0, 127, 127), 1, 1)
self.b = gamebox.from_circle(self.scale * 3, self.scale * 3, 'white',
self.scale // 2, 'black',
3 * self.scale // 8)
self.eye = gamebox.from_circle(self.scale * 3, self.scale * 3, 'black',
self.scale // 2, 'white',
7 * self.scale // 16)
self.pupil = gamebox.from_circle(self.scale * 3, self.scale * 3,
'black', self.scale // 4)
self.ok = True
self.look = (0, 0)
if kind == 1:
# square, corner
s = random.randrange(2, 10)
self.open = {(a, b) for a in range(s) for b in range(s)}
self.c = gamebox.Camera(self.scale * s * 2, self.scale * s * 2)
if start not in self.open: start = (0, 0)
self.b.center = (start[0] * 2 + 1) * self.scale, (start[1] * 2 +
1) * self.scale
elif kind == 2:
# rectangle, corner
w, h = random.randrange(2, 10), random.randrange(2, 10)
self.open = {(a, b) for a in range(w) for b in range(h)}
self.c = gamebox.Camera(self.scale * w * 2, self.scale * h * 2)
if start not in self.open: start = (0, 0)
self.b.center = (start[0] * 2 + 1) * self.scale, (start[1] * 2 +
1) * self.scale
elif kind == 3:
# rectangle, not corner
w, h = random.randrange(2, 10), random.randrange(2, 10)
self.open = {(a, b) for a in range(w) for b in range(h)}
self.c = gamebox.Camera(self.scale * w * 2, self.scale * h * 2)
if start not in self.open: start = random.choice(list(self.open))
self.b.center = (start[0] * 2 + 1) * self.scale, (start[1] * 2 +
1) * self.scale
elif kind == 4:
# diamond, top
s = random.randrange(1, 5)
self.open = set()
for i in range(s * 2 + 1):
dist = s - abs(i - s)
for k in range(s - dist, s + dist + 1):
self.open.add((i, k))
self.c = gamebox.Camera(self.scale * (2 * s + 1) * 2,
self.scale * (2 * s + 1) * 2)
if start not in self.open: start = (s, 0)
self.b.center = (start[0] * 2 + 1) * self.scale, (start[1] * 2 +
1) * self.scale
elif kind == 5:
# diamond, random
s = random.randrange(1, 5)
self.open = set()
for i in range(s * 2 + 1):
dist = s - abs(i - s)
for k in range(s - dist, s + dist + 1):
self.open.add((i, k))
self.c = gamebox.Camera(self.scale * (2 * s + 1) * 2,
self.scale * (2 * s + 1) * 2)
if start not in self.open: start = random.choice(list(self.open))
self.b.center = (start[0] * 2 + 1) * self.scale, (start[1] * 2 +
1) * self.scale
elif kind == 6:
# spiral
s = random.randrange(3, 7)
rot = random.randrange(4)
self.open = set()
p = [0, 0]
for side in range(s):
dx, dy = 0, 0
side += rot
if side & 1: dx = (side & 2) - 1
else: dy = (side & 2) - 1
side -= rot
for k in range(side + 1):
self.open.add(tuple(p))
p[0] += dx
p[1] += dy
mx, Mx = min(_[0] for _ in self.open), max(_[0] for _ in self.open)
my, My = min(_[1] for _ in self.open), max(_[1] for _ in self.open)
w = Mx - mx + 1
h = My - my + 1
self.open = {(_[0] - mx, _[1] - my) for _ in self.open}
self.c = gamebox.Camera(self.scale * w * 2, self.scale * h * 2)
if start not in self.open: start = (-mx, -my)
self.b.center = (start[0] * 2 + 1) * self.scale, (start[1] * 2 +
1) * self.scale
elif kind == 7:
# spiral, random placement
s = random.randrange(3, 7)
rot = random.randrange(4)
self.open = set()
p = [0, 0]
for side in range(s):
dx, dy = 0, 0
side += rot
if side & 1: dx = (side & 2) - 1
else: dy = (side & 2) - 1
side -= rot
for k in range(side + 1):
self.open.add(tuple(p))
p[0] += dx
p[1] += dy
mx, Mx = min(_[0] for _ in self.open), max(_[0] for _ in self.open)
my, My = min(_[1] for _ in self.open), max(_[1] for _ in self.open)
w = Mx - mx + 1
h = My - my + 1
self.open = {(_[0] - mx, _[1] - my) for _ in self.open}
self.c = gamebox.Camera(self.scale * w * 2, self.scale * h * 2)
if start not in self.open: start = random.choice(list(self.open))
self.b.center = (start[0] * 2 + 1) * self.scale, (start[1] * 2 +
1) * self.scale
elif kind == 8:
# random
cells = [(0, 0)]
w, h = 1, 1
while w < 10 and h < 10:
x, y = random.choice(cells)
if random.randrange(2) == 0:
x += random.randrange(-1, 2, 2)
else:
y += random.randrange(-1, 2, 2)
if (x, y) not in cells:
cells.append((x, y))
w = 1 + max(_[0] for _ in cells) - min(_[0] for _ in cells)
h = 1 + max(_[1] for _ in cells) - min(_[1] for _ in cells)
mx, my = min(_[0] for _ in cells), min(_[1] for _ in cells)
self.open = {(a - mx, b - my) for (a, b) in cells}
self.c = gamebox.Camera(self.scale * w * 2, self.scale * h * 2)
if start not in self.open: start = random.choice(list(self.open))
self.b.center = (start[0] * 2 + 1) * self.scale, (start[1] * 2 +
1) * self.scale
elif type(kind) is str:
cells = set()
for y in range(len(kind.split('\n'))):
row = kind.split('\n')[y]
for x in range(len(row)):
cell = row[x]
if not cell.isspace():
cells.add((x, y))
w = 1 + max(_[0] for _ in cells) - min(_[0] for _ in cells)
h = 1 + max(_[1] for _ in cells) - min(_[1] for _ in cells)
mx, my = min(_[0] for _ in cells), min(_[1] for _ in cells)
self.open = {(a - mx, b - my) for (a, b) in cells}
self.c = gamebox.Camera(self.scale * w * 2, self.scale * h * 2)
if start not in self.open: start = random.choice(list(self.open))
self.b.center = (start[0] * 2 + 1) * self.scale, (start[1] * 2 +
1) * self.scale
else:
raise ValueError('Invalid room kind: ' + repr(kind))
self.moves = 0
self.looks = 0
print('Correct answer:', len(self.open))
# - The game will have enemies that move. Being hit by an enemy will result in the loss of a life # - There will be collectibles: key on level 2 and coins on level 3 # - There are 3 levels # - We have a save point in the game after completing level 2 # - Level 3 is a scrolling level import gamebox import pygame camera = gamebox.Camera(800, 600) # Level 1 scenery player1 = gamebox.from_color(400, 475, 'blue', 20, 20) target = gamebox.from_circle(400, 125, 'purple', 7) fence1 = gamebox.from_color(400, 100, 'black', 400, 10) fence2 = gamebox.from_color(200, 300, 'black', 10, 400) fence3 = gamebox.from_color(600, 300, 'black', 10, 400) fence4 = gamebox.from_color(400, 500, 'black', 400, 10) course_obstacles_1 = [fence1, fence2, fence3, fence4] enemy1 = gamebox.from_circle(250, 150, 'red', 8) enemy2 = gamebox.from_circle(250, 210, 'red', 8) enemy3 = gamebox.from_circle(250, 270, 'red', 8) enemy4 = gamebox.from_circle(250, 330, 'red', 8) enemy5 = gamebox.from_circle(250, 390, 'red', 8) enemy6 = gamebox.from_circle(550, 180, 'red', 8) enemy7 = gamebox.from_circle(550, 240, 'red', 8) enemy8 = gamebox.from_circle(550, 300, 'red', 8)
global active_index
active_index = (active_index + 1) % len(platforms)
# physics
gravity = 1
switch_time = 0
# lives
lives = 3
life_boxes = [
gamebox.from_circle(camera.right - 20, camera.top + 20, 'red', 15),
gamebox.from_circle(camera.right - 60, camera.top + 20, 'red', 15),
gamebox.from_circle(camera.right - 100, camera.top + 20, 'red', 15),
gamebox.from_circle(camera.right - 140, camera.top + 20, 'red', 15)
]
extra_life = gamebox.from_circle(2500, 300, 'red', 15)
extra_life_collected = False
def draw_lives(num_lives):
first_x = camera.right - 20
y = camera.top + 20
for i in range(num_lives):
life = gamebox.from_circle(first_x - i * 40, y, 'red', 15)
# life = life_boxes[i]
def tick(keys):
global game_state, dice_1, dice_2, dice_3, dice_4, dice_5, roll_tri, total_score, dice_1_state, dice_2_state, \
dice_3_state, dice_4_state, dice_5_state, dice_1_score, dice_2_score, dice_3_score, dice_4_score, dice_5_score
camera.clear('green')
camera.draw(average_display)
roll_tri = pygame.mouse.get_pressed()
if game_state == 'start_screen':
camera.draw(start_screen)
if len(high_scores_list) >= 10:
for score in high_scores:
camera.draw(score)
if pygame.K_SPACE in keys:
game_state = 'gametime'
if game_state == 'gametime':
for thing in outlines:
camera.draw(thing)
space_color()
for number in die_numbers:
camera.draw(number)
camera.draw(hands)
camera.draw(instructions)
if roll_tri[0] == 1:
roll()
game_state = 'choose_die'
if game_state == 'choose_die':
for thing in outlines:
camera.draw(thing)
space_color()
for number in die_numbers:
camera.draw(number)
camera.draw(hands)
camera.draw(instructions_2)
camera.draw(instructions_2_1)
camera.draw(instructions_2_2)
if pygame.K_1 in keys:
dice_1_state = 'done'
if pygame.K_2 in keys:
dice_2_state = 'done'
if pygame.K_3 in keys:
dice_3_state = 'done'
if pygame.K_4 in keys:
dice_4_state = 'done'
if pygame.K_5 in keys:
dice_5_state = 'done'
if pygame.K_SPACE in keys:
game_state = 'gametime'
if dice_1_state == 'done' and dice_2_state == 'done' and dice_3_state == 'done' and dice_4_state == 'done' and \
dice_5_state == 'done':
dice_1_score = dice_1
dice_2_score = dice_2
dice_3_score = dice_3
dice_4_score = dice_4
dice_5_score = dice_5
if dice_1_score == 3:
dice_1_score = 0
if dice_2_score == 3:
dice_2_score = 0
if dice_3_score == 3:
dice_3_score = 0
if dice_4_score == 3:
dice_4_score = 0
if dice_5_score == 3:
dice_5_score = 0
game_state = 'game_finished'
if game_state == 'game_finished':
for thing in outlines:
camera.draw(thing)
space_color()
total_score = dice_1_score + dice_2_score + dice_3_score + dice_4_score + dice_5_score
camera.draw(
gamebox.from_text(400, 75, 'Total Score: ' + str(total_score), 32,
'white'))
if game_state != 'start_screen':
if dice_1 == 1:
camera.draw(gamebox.from_circle(400, 250, 'black', 5))
if dice_1 == 2:
camera.draw(gamebox.from_circle(390, 240, 'black', 5))
camera.draw(gamebox.from_circle(410, 260, 'black', 5))
if dice_1 == 3:
camera.draw(gamebox.from_circle(400, 250, 'black', 5))
camera.draw(gamebox.from_circle(390, 240, 'black', 5))
camera.draw(gamebox.from_circle(410, 260, 'black', 5))
if dice_1 == 4:
camera.draw(gamebox.from_circle(390, 240, 'black', 5))
camera.draw(gamebox.from_circle(410, 260, 'black', 5))
camera.draw(gamebox.from_circle(390, 260, 'black', 5))
camera.draw(gamebox.from_circle(410, 240, 'black', 5))
if dice_1 == 5:
camera.draw(gamebox.from_circle(400, 250, 'black', 5))
camera.draw(gamebox.from_circle(390, 240, 'black', 5))
camera.draw(gamebox.from_circle(410, 260, 'black', 5))
camera.draw(gamebox.from_circle(390, 260, 'black', 5))
camera.draw(gamebox.from_circle(410, 240, 'black', 5))
if dice_1 == 6:
camera.draw(gamebox.from_circle(410, 250, 'black', 5))
camera.draw(gamebox.from_circle(390, 250, 'black', 5))
camera.draw(gamebox.from_circle(390, 240, 'black', 5))
camera.draw(gamebox.from_circle(410, 260, 'black', 5))
camera.draw(gamebox.from_circle(390, 260, 'black', 5))
camera.draw(gamebox.from_circle(410, 240, 'black', 5))
if dice_2 == 1:
camera.draw(gamebox.from_circle(300, 250, 'black', 5))
if dice_2 == 2:
camera.draw(gamebox.from_circle(290, 240, 'black', 5))
camera.draw(gamebox.from_circle(310, 260, 'black', 5))
if dice_2 == 3:
camera.draw(gamebox.from_circle(300, 250, 'black', 5))
camera.draw(gamebox.from_circle(290, 240, 'black', 5))
camera.draw(gamebox.from_circle(310, 260, 'black', 5))
if dice_2 == 4:
camera.draw(gamebox.from_circle(290, 240, 'black', 5))
camera.draw(gamebox.from_circle(310, 260, 'black', 5))
camera.draw(gamebox.from_circle(290, 260, 'black', 5))
camera.draw(gamebox.from_circle(310, 240, 'black', 5))
if dice_2 == 5:
camera.draw(gamebox.from_circle(300, 250, 'black', 5))
camera.draw(gamebox.from_circle(290, 240, 'black', 5))
camera.draw(gamebox.from_circle(310, 260, 'black', 5))
camera.draw(gamebox.from_circle(290, 260, 'black', 5))
camera.draw(gamebox.from_circle(310, 240, 'black', 5))
if dice_2 == 6:
camera.draw(gamebox.from_circle(290, 250, 'black', 5))
camera.draw(gamebox.from_circle(310, 250, 'black', 5))
camera.draw(gamebox.from_circle(290, 240, 'black', 5))
camera.draw(gamebox.from_circle(310, 260, 'black', 5))
camera.draw(gamebox.from_circle(290, 260, 'black', 5))
camera.draw(gamebox.from_circle(310, 240, 'black', 5))
if dice_3 == 1:
camera.draw(gamebox.from_circle(500, 250, 'black', 5))
if dice_3 == 2:
camera.draw(gamebox.from_circle(490, 240, 'black', 5))
camera.draw(gamebox.from_circle(510, 260, 'black', 5))
if dice_3 == 3:
camera.draw(gamebox.from_circle(500, 250, 'black', 5))
camera.draw(gamebox.from_circle(490, 240, 'black', 5))
camera.draw(gamebox.from_circle(510, 260, 'black', 5))
if dice_3 == 4:
camera.draw(gamebox.from_circle(490, 240, 'black', 5))
camera.draw(gamebox.from_circle(510, 260, 'black', 5))
camera.draw(gamebox.from_circle(490, 260, 'black', 5))
camera.draw(gamebox.from_circle(510, 240, 'black', 5))
if dice_3 == 5:
camera.draw(gamebox.from_circle(500, 250, 'black', 5))
camera.draw(gamebox.from_circle(490, 240, 'black', 5))
camera.draw(gamebox.from_circle(510, 260, 'black', 5))
camera.draw(gamebox.from_circle(490, 260, 'black', 5))
camera.draw(gamebox.from_circle(510, 240, 'black', 5))
if dice_3 == 6:
camera.draw(gamebox.from_circle(510, 250, 'black', 5))
camera.draw(gamebox.from_circle(490, 250, 'black', 5))
camera.draw(gamebox.from_circle(490, 240, 'black', 5))
camera.draw(gamebox.from_circle(510, 260, 'black', 5))
camera.draw(gamebox.from_circle(490, 260, 'black', 5))
camera.draw(gamebox.from_circle(510, 240, 'black', 5))
if dice_4 == 1:
camera.draw(gamebox.from_circle(350, 350, 'black', 5))
if dice_4 == 2:
camera.draw(gamebox.from_circle(340, 340, 'black', 5))
camera.draw(gamebox.from_circle(360, 360, 'black', 5))
if dice_4 == 3:
camera.draw(gamebox.from_circle(350, 350, 'black', 5))
camera.draw(gamebox.from_circle(340, 340, 'black', 5))
camera.draw(gamebox.from_circle(360, 360, 'black', 5))
if dice_4 == 4:
camera.draw(gamebox.from_circle(340, 340, 'black', 5))
camera.draw(gamebox.from_circle(360, 360, 'black', 5))
camera.draw(gamebox.from_circle(340, 360, 'black', 5))
camera.draw(gamebox.from_circle(360, 340, 'black', 5))
if dice_4 == 5:
camera.draw(gamebox.from_circle(350, 350, 'black', 5))
camera.draw(gamebox.from_circle(340, 340, 'black', 5))
camera.draw(gamebox.from_circle(360, 360, 'black', 5))
camera.draw(gamebox.from_circle(340, 360, 'black', 5))
camera.draw(gamebox.from_circle(360, 340, 'black', 5))
if dice_4 == 6:
camera.draw(gamebox.from_circle(340, 350, 'black', 5))
camera.draw(gamebox.from_circle(360, 350, 'black', 5))
camera.draw(gamebox.from_circle(340, 340, 'black', 5))
camera.draw(gamebox.from_circle(360, 360, 'black', 5))
camera.draw(gamebox.from_circle(340, 360, 'black', 5))
camera.draw(gamebox.from_circle(360, 340, 'black', 5))
if dice_5 == 1:
camera.draw(gamebox.from_circle(450, 350, 'black', 5))
if dice_5 == 2:
camera.draw(gamebox.from_circle(440, 340, 'black', 5))
camera.draw(gamebox.from_circle(460, 360, 'black', 5))
if dice_5 == 3:
camera.draw(gamebox.from_circle(450, 350, 'black', 5))
camera.draw(gamebox.from_circle(440, 340, 'black', 5))
camera.draw(gamebox.from_circle(460, 360, 'black', 5))
if dice_5 == 4:
camera.draw(gamebox.from_circle(440, 340, 'black', 5))
camera.draw(gamebox.from_circle(460, 360, 'black', 5))
camera.draw(gamebox.from_circle(440, 360, 'black', 5))
camera.draw(gamebox.from_circle(460, 340, 'black', 5))
if dice_5 == 5:
camera.draw(gamebox.from_circle(450, 350, 'black', 5))
camera.draw(gamebox.from_circle(440, 340, 'black', 5))
camera.draw(gamebox.from_circle(460, 360, 'black', 5))
camera.draw(gamebox.from_circle(440, 360, 'black', 5))
camera.draw(gamebox.from_circle(460, 340, 'black', 5))
if dice_5 == 6:
camera.draw(gamebox.from_circle(440, 350, 'black', 5))
camera.draw(gamebox.from_circle(460, 350, 'black', 5))
camera.draw(gamebox.from_circle(440, 340, 'black', 5))
camera.draw(gamebox.from_circle(460, 360, 'black', 5))
camera.draw(gamebox.from_circle(440, 360, 'black', 5))
camera.draw(gamebox.from_circle(460, 340, 'black', 5))
camera.display()
def setup(level):
"""sets all of the needed variables, starts the level corresponding to the given level argument"""
global level1, level2, level3, level1screen, gameover, checkpoint_reached
global boundary, left_angled_bumpers, right_angled_bumpers, diagonal_bumpers, square_bumpers, moving_bumpers
global targets, target_dict, coins, coin_1, coin_2, score, j, k, c, up_arrow, ball, paddle, balls, board, background
# input tells function which level we are in
if level == 1:
level1 = True
if level == 2:
level2 = True
if level == 3:
level3 = True
level1screen = True
gameover = False
score = 0
j = 0
k = 0
c = 0
up_arrow = 0
# on the first level the player gets 3 balls, only 1 additional on subsequent levels
if level == 1:
balls += 3
else:
balls += 1
# ball
ball = gamebox.from_circle(
r.randrange(300, 511, 70), 120, 'dark blue',
4) # places the ball randomly at 300, 370, 440, or 510
ball.speedx = r.randrange(
0, 3, 2) - 1 # gives the ball a random speed of either -1 and 1
ball.speedy = 1
# paddle
paddle = gamebox.from_color(camera_x / 2, 565, 'black', 60, 20)
# checkpoint accomplished text
checkpoint_reached = gamebox.from_text(400, 300, 'CHECKPOINT REACHED', 40,
'black') # used in level 2
# head of the board
backbox = gamebox.from_image(camera_x / 2, 0, 'backbox_lvl_1.png')
backbox.scale_by(.30)
backbox.top = camera.top
# board
board = gamebox.from_image(camera_x / 2, 0, 'board.png')
board.scale_by(.55)
board.top = backbox.bottom - 20
background = [backbox, board]
# boundary
boundary_left = gamebox.from_color(board.left + 20, camera_y / 2, 'black',
17, 410)
boundary_right = gamebox.from_color(board.right - 20, camera_y / 2,
'black', 17, 410)
boundary_top = gamebox.from_color(
camera_x / 2, 0, 'black',
boundary_right.left - boundary_left.right + 31, 17)
boundary_top.bottom = boundary_left.top + 15
boundary = [boundary_left, boundary_right, boundary_top]
# diagonal bumpers
exit_bumper_left = create_diagonal_45(board.left + 13,
boundary_left.bottom - 12,
board.left + 45, 26, 'black')
exit_bumper_right = create_diagonal_45(board.right - 13,
boundary_right.bottom - 12,
board.right - 45, 26, 'black')
right_angled_bumper_1 = create_diagonal_45(camera_x / 2 + 10, 250,
camera_x / 2 + 50, 15, 'yellow')
left_angled_bumper_1 = create_diagonal_45(camera_x / 2 - 10, 250,
camera_x / 2 - 50, 15, 'yellow')
# separate lists for different angled bumpers because they have a different effect on the ball
left_angled_bumpers = [exit_bumper_right, left_angled_bumper_1]
right_angled_bumpers = [exit_bumper_left, right_angled_bumper_1]
# we can put all of the diagonals in the same list to draw them later: this is a list of lists
diagonal_bumpers = [
exit_bumper_left, exit_bumper_right, right_angled_bumper_1,
left_angled_bumper_1
]
# square bumpers
square_bumper1 = gamebox.from_color(camera_x / 3 - 20, camera_y / 2, 'red',
30, 30)
square_bumper2 = gamebox.from_color(camera_x * (2 / 3) + 20, camera_y / 2,
'red', 30, 30)
square_bumpers = [square_bumper1, square_bumper2]
# OPTIONAL FEATURES 1. Moving Enemies
# bumpers that perpetually move side to side or up and down
moving_bumper_1 = gamebox.from_color(camera_x / 3 + 60, 400, 'black', 50,
15)
moving_bumper_2 = gamebox.from_color(camera_x * (2 / 3) - 60, 400, 'black',
50, 15)
moving_bumper_3 = gamebox.from_color(camera_x / 2 + 45, 185, 'black', 75,
15)
moving_bumpers = [moving_bumper_1, moving_bumper_2, moving_bumper_3]
# targets
target50_1 = gamebox.from_image(250, 200, 'target50_1.png')
target50_2 = gamebox.from_image(550, 200, 'target50_1.png')
target100_1 = gamebox.from_image(400, 210, 'target100_1.png')
targets = [target50_1, target50_2, target100_1]
for each in targets:
each.scale_by(.1)
# make a dictionary with 'targets' indices as keys and their corresponding points values as values
# makes it easier to call the correct point values later
target_dict = {0: 50, 1: 50, 2: 100}
# OPTIONAL FEATURES 2. Collectibles
# coins that give the user an extra ball
coin_1 = gamebox.from_image(camera_x / 2, 250, 'gold_coin.png')
coin_2 = gamebox.from_image(boundary_left.right + 10,
boundary_top.bottom + 10, 'gold_coin.png')
coins = [coin_1, coin_2]
for each in coins:
each.scale_by(.1)
shark = gamebox.from_color(1300, 400, 'orange', 40, 30)
shark_sheet = gamebox.load_sprite_sheet(
'https://orig00.deviantart.net/bd28/f/2014/048/4/b/pating_triangle_by_ottojoy-d76ywd4.png',
2, 2)
shark = gamebox.from_image(shark.x, shark.y, shark_sheet[1])
shark.scale_by(0.7)
crab = gamebox.from_color(800, 300, 'red', 40, 30)
crab_sheet = gamebox.load_sprite_sheet(
'https://d3tv7e6jdw6zbr.cloudfront.net/items/2012-12-06/npc_crab__x1_walk_png_1354831183.png',
4, 6)
crab = gamebox.from_image(crab.x, crab.y, crab_sheet[1])
crab.scale_by(0.5)
star = gamebox.from_circle(1050, 100, 'yellow', 10)
star_sheet = gamebox.load_sprite_sheet(
'http://3.bp.blogspot.com/-eo9bbSi5gmo/Uz6ylKl5hUI/AAAAAAAAAjo/OhG0bdh9xSo/s1600/Ster+animatie.png',
3, 8)
star = gamebox.from_image(star.x, star.y, star_sheet[3])
star.scale_by(0.8)
start = False
score = 0
count_tick = 0
speed = 3
lvl = 1
def random_boosts():
"""
def draw_lives_p2(num_lives):
first_x = camera.right - 20
y = camera.top + 20
for i in range(num_lives):
life = gamebox.from_circle(first_x - i * 40, y, 'lawngreen', 15)
camera.draw(life)
# Names: Emmanuel Ogunjirin | AJ Givens
# Computing ID: EAO5XC | (Insert AJ Given's Computing ID here
# ------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- #
# ------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- #
# ------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- #
# ------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- #
import pygame # Gets the pygame library
import gamebox
""" This is the classic snake game - Eat as many apples as you can without hitting/eating yourself :-) """
camera = gamebox.Camera(800, 600)
snakeItem = gamebox.from_circle(400, 400, 'white', 5)
def snake(keys):
"""
....
:param keys:
:return:
"""
camera.clear('black') # Gets the dark background of the game platform.
if pygame.K_LEFT in keys or pygame.K_a in keys: # Sets the key to do the following action
snakeItem.x -= 5 # move snakeItem left
if pygame.K_RIGHT in keys or pygame.K_d in keys: # Sets the key to do the following action
snakeItem.x += 5 # move snakeItem right
if pygame.K_UP in keys or pygame.K_w in keys: # Sets the key to do the following action
snakeItem.y -= 5 # move snakeItem up
if pygame.K_DOWN in keys or pygame.K_s in keys: # Sets the key to do the following action
def draw_lives_p1(num_lives):
first_x = camera.left + 20
y = camera.top + 20
for i in range(num_lives):
life = gamebox.from_circle(first_x + i * 40, y, 'cyan', 15)
camera.draw(life)
# ------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- # import pygame # Gets the pygame library import gamebox # Gets the gamebox library """ This is a Tron like game made as an assignment for CS-1111 Game Project. This project was done using the gamebox module developed by Professor Luther Tychonievich. This is the classic Tron game - Try to corner your opponent into hitting you while trying not to hit them :-) """ width = 800 # This is the width of the window height = 600 # This is the height of the window camera = gamebox.Camera(width, height) # Draws the window redPlayer = gamebox.from_circle(750, 550, 'red', 5) # This is the red player bluePlayer = gamebox.from_circle(50, 50, 'blue', 5) # This is the blue player redPlayer_instruction = gamebox.from_text(600, 550, 'This is the red player ---> ', 30, 'red', False) # Draws Instructions bluePlayer_instruction = gamebox.from_text(250, 50, '<--- This is the blue player', 30, 'blue', False) # Draws Instructions redPlayer_instruction1 = gamebox.from_text(400, 500, 'Use the arrows to control the red player', 30, 'red', False) # Draws Instructions bluePlayer_instruction1 = gamebox.from_text(400, 100, 'Use the "A,W,S,D" keys to control the blue player', 30, 'blue', False) # Draws Instructions general_instructions = gamebox.from_text(400, 300, 'Press Space to Start!', 80, 'white', True) # Draws Instructions general_instructions1 = gamebox.from_text(400, 350, 'Try to make your opponent hit you', 40, 'white', True) # Draws Instructions redPlayerPositions = [] # Keeps a running list of the position of the red player bluePlayerPositions = [] # Keeps a running list of the position of the blue player game_on = False # Freezes the screen to begin number = 0 # Sets the start to 0
# ------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- #
# ------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- #
# ------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------- #
# This game project was designed as an assignment for the Introductory to Computer Engineering (CS-1111) course.
# This game consists of a collection of games put that was designed and created by the names listed above for the final game project of the class.
import pygame # Gets the pygame library
import gamebox # Gets the gamebox library
width = 800 # Sets the width to the size
height = 600 # Sets the height to the size.
camera = gamebox.Camera(width,
height) # This is the camera that pans the screen.
main_screen_character = gamebox.from_circle(
width / 2, height / 2, 'white', 10) # This is the main screen character.
main_screen_character_speed = 10 # This is the speed of the white bob.
square_width = 50 # This is how wide the squares are
square_height = 50 # This is how high the squares are
first_square_spacing = 400 # This is where the first squares are and the others are based off this one.
snakeOption = gamebox.from_color(width / 3, height - first_square_spacing,
'green', square_width,
square_height) # Snake game
asteroidsOption = gamebox.from_color(width - width / 3,
height - first_square_spacing, 'red',
square_width,
square_height) # Asteroid game
bricksOption = gamebox.from_color(width / 3,
height - first_square_spacing + 150, 'blue',
def tick(keys):
global currentangle, measureticks, numberOfTicksToShoot, arrayOfCoins, game, hp, delayForEnemies, numberOfCoins, \
score, interfaceForUpgrades, delayForInterface, StartOfTheGame, gun_price, hp_price, bullet_speed, Lost, view_hs
if StartOfTheGame:
if pygame.mouse.get_pressed()[0] and (
pygame.mouse.get_pos()[0] >
275) and (pygame.mouse.get_pos()[0] <
525) and (pygame.mouse.get_pos()[1] <
234) and (pygame.mouse.get_pos()[1] > 166):
StartOfTheGame = False
game = True
reset()
if pygame.mouse.get_pressed()[0] and (
pygame.mouse.get_pos()[0] >
275) and (pygame.mouse.get_pos()[0] <
525) and (pygame.mouse.get_pos()[1] <
434) and (pygame.mouse.get_pos()[1] > 366):
sys.exit()
if pygame.mouse.get_pressed()[0] and (
pygame.mouse.get_pos()[0] >
275) and (pygame.mouse.get_pos()[0] <
525) and (pygame.mouse.get_pos()[1] <
334) and (pygame.mouse.get_pos()[1] > 266):
view_hs = True
camera.draw(
gamebox.from_image(400, 300, "StartInterfaceBackground.png"))
camera.draw(gamebox.from_image(400, 200, 'StartGameButton.png'))
camera.draw(gamebox.from_image(400, 300, "HighScoresButton.png"))
camera.draw(gamebox.from_image(400, 400, "ExitButton.png"))
camera.draw(
gamebox.from_text(150, 40, "Defend flag from zombies!", 30, "red"))
camera.draw(
gamebox.from_text(180, 560, "Use W, A, S, D to move character.",
30, "red"))
camera.draw(
gamebox.from_text(620, 40, "Use the mouse to rotate player", 30,
"red"))
camera.draw(
gamebox.from_text(670, 560, "Press LMB to shoot", 30, "red"))
if view_hs:
camera.draw(
gamebox.from_image(400, 300, "StartInterfaceBackground.png"))
if pygame.K_SPACE in keys:
view_hs = False
camera.draw(
gamebox.from_text(300, 25, "Press Space to go back", 40,
"red"))
stream = open('HighScores.txt', 'r')
scores = stream.readlines()
delta = 40
for i in scores:
camera.draw(
gamebox.from_text(400, 100 + delta, i[0:len(i) - 1], 25,
'blue'))
delta += 30
camera.display()
if game:
measureticks += 1
if pygame.K_w in keys:
player.move(0, -5)
if pygame.K_s in keys:
player.move(0, 5)
if pygame.K_a in keys:
player.move(-5, 0)
if pygame.K_d in keys:
player.move(5, 0)
if delayForInterface < 30:
delayForInterface += 1
if (pygame.K_SPACE in keys) and (delayForInterface >= 30):
interfaceForUpgrades = True
delayForInterface = 0
if interfaceForUpgrades:
game = False
x = -(player.x - pygame.mouse.get_pos()[0])
y = -(player.y - pygame.mouse.get_pos()[1])
if delayForEnemies <= 30:
delayForEnemies += 1
for i in enemies:
if i.touches(other=player):
if delayForEnemies >= 30:
hp -= 1
delayForEnemies = 0
if x == 0:
x = 0.0001
angle = int((math.atan2(x, y)) * 360 / (math.pi * 2)) - 90
player.rotate((angle - currentangle))
currentangle = angle
if pygame.mouse.get_pressed()[0] == 1:
vx = bullet_speed * (x / (math.sqrt(abs(x * x + y * y))))
vy = bullet_speed * (y / (math.sqrt(abs(x * x + y * y))))
if measureticks > numberOfTicksToShoot:
arrayOfBullets.append([
gamebox.from_image(player.x, player.y, 'bullet.png'), vx,
vy
])
measureticks = 0
for i in arrayOfBullets:
i[0].move(i[1], i[2])
for i in arrayOfBullets:
for j in enemies:
if i[0].touches(other=j):
arrayOfCoins.append(
gamebox.from_circle(j.x, j.y, 'yellow', 5))
j.x = -2000000
j.y = -2000000
i[0].x = -1000000
i[0].y = -1000000
score += 10
for i in arrayOfCoins:
if i.touches(other=player):
i.x = -1000000
i.y = -1000000
numberOfCoins += 1
if hp == 0:
game = False
Lost = True
for i in enemies:
if i.touches(other=flag):
Lost = True
game = False
if measureticks % 50 == 0:
if random.randint(1, 8) == 1:
enemies.append(
gamebox.from_image(random.randrange(-200, 0),
random.randrange(-200, 0),
'New Piskel.png'))
enemies[-1].rotate(
int((math.atan2(400 - enemies[-1].x, 300 -
enemies[-1].y)) * 360 / (math.pi * 2)) -
90)
elif random.randint(1, 8) == 2:
enemies.append(
gamebox.from_image(random.randrange(-200, 0),
random.randrange(200, 400),
'New Piskel.png'))
enemies[-1].rotate(
int((math.atan2(400 - enemies[-1].x, 300 -
enemies[-1].y)) * 360 / (math.pi * 2)) -
90)
elif random.randint(1, 8) == 3:
enemies.append(
gamebox.from_image(random.randrange(-200, 0),
random.randrange(600, 800),
'New Piskel.png'))
enemies[-1].rotate(
int((math.atan2(400 - enemies[-1].x, 300 -
enemies[-1].y)) * 360 / (math.pi * 2)) -
90)
elif random.randint(1, 8) == 4:
enemies.append(
gamebox.from_image(random.randrange(300, 500),
random.randrange(-200, 0),
'New Piskel.png'))
enemies[-1].rotate(
int((math.atan2(400 - enemies[-1].x, 300 -
enemies[-1].y)) * 360 / (math.pi * 2)) -
90)
elif random.randint(1, 8) == 5:
enemies.append(
gamebox.from_image(random.randrange(800, 1000),
random.randrange(-200, 0),
'New Piskel.png'))
enemies[-1].rotate(
int((math.atan2(400 - enemies[-1].x, 300 -
enemies[-1].y)) * 360 / (math.pi * 2)) -
90)
elif random.randint(1, 8) == 6:
enemies.append(
gamebox.from_image(random.randrange(800, 1000),
random.randrange(200, 400),
'New Piskel.png'))
enemies[-1].rotate(
int((math.atan2(400 - enemies[-1].x, 300 -
enemies[-1].y)) * 360 / (math.pi * 2)) -
90)
elif random.randint(1, 8) == 7:
enemies.append(
gamebox.from_image(random.randrange(800, 1000),
random.randrange(600, 800),
'New Piskel.png'))
enemies[-1].rotate(
int((math.atan2(400 - enemies[-1].x, 300 -
enemies[-1].y)) * 360 / (math.pi * 2)) -
90)
elif random.randint(1, 8) == 8:
enemies.append(
gamebox.from_image(random.randrange(300, 500),
random.randrange(600, 800),
'New Piskel.png'))
enemies[-1].rotate(
int((math.atan2(400 - enemies[-1].x, 300 -
enemies[-1].y)) * 360 / (math.pi * 2)) -
90)
for i in enemies:
i.move(
5 * (400 - i.x) / (math.sqrt((400 - i.x) * (400 - i.x) +
(300 - i.y) * (300 - i.y))),
5 * (300 - i.y) / (math.sqrt((400 - i.x) * (400 - i.x) +
(300 - i.y) * (300 - i.y))))
camera.draw(background)
camera.draw(player)
for i in arrayOfBullets:
camera.draw(i[0])
for i in enemies:
camera.draw(i)
for i in arrayOfCoins:
camera.draw(i)
if hp == 1:
camera.draw(health[0])
if hp == 2:
camera.draw(health[0])
camera.draw(health[1])
if hp == 3:
camera.draw(health[0])
camera.draw(health[1])
camera.draw(health[2])
camera.draw(
gamebox.from_text(600, 30, "Coins: " + str(numberOfCoins), 30,
'Yellow'))
camera.draw(
gamebox.from_text(700, 30, "Score: " + str(score), 30, 'green'))
camera.draw(flag)
camera.draw(
gamebox.from_text(500, 570,
"Press Space to upgrade gun or restore hp", 30,
"red"))
camera.display()
if (game == False) and (Lost == True):
camera.draw(
gamebox.from_text(400, 300, 'You lost! Press Space to exit.', 40,
"red"))
camera.draw(
gamebox.from_text(400, 350, 'Score: ' + str(score), 40, "green"))
camera.display()
if pygame.K_SPACE in keys:
Lost = False
StartOfTheGame = True
stream = open("HighScores.txt", "r")
highscores = stream.readlines()
scores_to_compare = []
for i in highscores:
scores_to_compare.append(i.split())
NewHS = False
try:
for i in range(0, len(scores_to_compare)):
if (score > int(scores_to_compare[i][2])) and (NewHS
== False):
for j in range(len(scores_to_compare) - 1, i, -1):
scores_to_compare[j][2] = scores_to_compare[j -
1][2]
scores_to_compare[i][2] = str(score)
NewHS = True
except:
x = None
stream.close()
if NewHS == True:
stream = open("HighScores.txt", "w")
for i in range(0, len(scores_to_compare)):
scores_to_compare[
i] = scores_to_compare[i][0] + ' ' + scores_to_compare[
i][1] + ' ' + scores_to_compare[i][2]
stream.write(scores_to_compare[i] + '\n')
stream.close()
NewHS = False
if (game == False) and (interfaceForUpgrades == True):
if delayForInterface < 30:
delayForInterface += 1
if (pygame.K_SPACE in keys) and (delayForInterface >= 30):
game = True
interfaceForUpgrades = False
delayForInterface = 0
if (pygame.K_e in keys) and (numberOfCoins >= gun_price):
bullet_speed *= 2
numberOfCoins = numberOfCoins - gun_price
gun_price *= 2
camera.draw(
gamebox.from_text(
400, 150,
"Speed of the bullet was doubled! Press Space to exit.",
20, "red"))
if pygame.K_r in keys:
if hp < 3 and numberOfCoins >= hp_price:
hp += 1
numberOfCoins = numberOfCoins - hp_price
hp_price *= 2
camera.draw(
gamebox.from_text(
400, 150, "1 hp was restored! Press Space to exit.",
20, "red"))
if hp >= 3 and numberOfCoins >= hp_price:
camera.draw(
gamebox.from_text(
400, 150,
"You already have maximum hp! Press Space to exit.",
20, "red"))
camera.draw(gamebox.from_image(400, 300, 'interfaceForUpgrades.png'))
camera.draw(gamebox.from_text(300, 375, str(gun_price), 20, "yellow"))
camera.draw(gamebox.from_text(450, 375, str(hp_price), 20, "yellow"))
camera.display()
def draw_ball_interactions(level):
"""draws the ball and sets all the interactions it has with other objects on the game board"""
global ball, balls, paddle, moving_bumpers, boundary, right_angled_bumpers, left_angled_bumpers, square_bumpers
global targets, score, target_dict, player_ready, j, coins, gameover
# speeds of the ball get changed by move_to_stop_overlapping, so if we capture the speed before that, we have it
# available for use
local_speedx = ball.speedx
local_speedy = ball.speedy
ball.speedy += .1 # gravity
ball.move_speed()
# interaction with paddle
ball.move_to_stop_overlapping(paddle)
if ball.bottom_touches(paddle) or ball.left_touches(
paddle) or ball.right_touches(paddle):
ball.speedx = local_speedx + (
paddle.speedx / (level + 4)
) # we add a little bit of the paddle's speed to the ball, a lesser fraction as the paddle speed increases between levels
ball.speedy = -6.5 # paddle will cause a consistent upward force on the ball
# interaction with moving bumpers
for each in moving_bumpers:
ball.move_to_stop_overlapping(each)
if ball.bottom_touches(each):
ball.speedy = -local_speedy * .9
ball.speedx = local_speedx
if ball.top_touches(each):
ball.speedy = -local_speedy * .75 # slow it down so the ball doesn't kick down really fast
ball.speedx = local_speedx
if ball.left_touches(each):
ball.speedx = -local_speedx * .9
ball.x += 1 # makes sure ball doesn't ride along the side
if ball.right_touches(each):
ball.speedx = -local_speedx * .9
ball.x -= 1
# interaction with boundaries
for each in boundary:
ball.move_to_stop_overlapping(each)
for i in range(2):
if ball.touches(boundary[i]): # sides of the boundary
ball.speedx = -local_speedx * .75 # slow it down in the x direction a little
# no change in y because we already have gravity
if ball.touches(boundary[2]): # top of the boundary
ball.speedy = -local_speedy * .75
# interaction with diagonal bumpers
# have to go through left/right separately because of their angles
for each in right_angled_bumpers:
for i in range(len(each)):
ball.move_to_stop_overlapping(each[i])
if ball.bottom_touches(each[i]) or ball.left_touches(each[i]):
ball.speedy = -local_speedy * .85
if local_speedx > 0: # because it is angled right, if the ball is coming from the left, it
# continues that way
ball.speedx = local_speedx
else:
ball.speedx = -local_speedx # otherwise it gets shot back in the opposite direction
if ball.top_touches(each[i]) or ball.right_touches(
each[i]
): # now we are looking at collisions from underneath
ball.speedy = -local_speedy * .85
if local_speedx < 0: # if the ball is moving to the left
ball.speedx = local_speedx # since the underside is angled left it continues that way
else:
ball.speedx = -local_speedx
for each in left_angled_bumpers:
for i in range(len(each)):
ball.move_to_stop_overlapping(each[i])
if ball.bottom_touches(each[i]) or ball.right_touches(each[i]):
ball.speedy = -local_speedy * .85
if local_speedx < 0: # if the ball is moving left
ball.speedx = local_speedx # since top is angled left it continues that way
else:
ball.speedx = -local_speedx
if ball.top_touches(each[i]) or ball.left_touches(each[i]):
ball.speedy = -local_speedy * .85
if local_speedx > 0: # if the ball is moving right
ball.speedx = local_speedx # since the underside is angled right it continues that way
else:
ball.speedx = -local_speedx
# interaction with square bumpers
for each in square_bumpers:
ball.move_to_stop_overlapping(each)
if ball.bottom_touches(each) or ball.top_touches(each):
ball.speedy = -local_speedy * .75
ball.speedx = local_speedx
if local_speedx > 0: # move the ball left or right based on incoming direction of ball
ball.x += 1 # makes sure ball doesn't get stuck on top of a bumper
else:
ball.x -= 1
if ball.left_touches(each):
ball.speedx = -local_speedx * .75
ball.speedy = local_speedy
ball.x += 1 # makes sure ball doesn't get stuck on the side
if ball.right_touches(each):
ball.speedx = -local_speedx * .75
ball.speedy = local_speedy
ball.x -= 1 # makes sure ball doesn't get stuck on the side
# interaction with targets
for i in range(len(targets)):
if i == 4: # for the 500 point bumper
if ball.touches(targets[i]):
score += target_dict[i]
ball.move_to_stop_overlapping(targets[i])
ball.speedx = -local_speedx * 1.5 # want it to kick off extra fast
ball.x += 2 # makes sure ball doesn't rack up too many points on it
if ball.bottom_touches(targets[i]) or ball.top_touches(targets[i]):
score += target_dict[i]
ball.move_to_stop_overlapping(targets[i])
ball.speedy = -local_speedy
ball.speedx = local_speedx
if local_speedx > 0: # if the ball is moving right move it right + 2
ball.x += 2 # makes sure ball doesn't get stuck on top
else:
ball.x -= 2
if ball.left_touches(targets[i]):
score += target_dict[i]
ball.move_to_stop_overlapping(targets[i])
ball.speedy = local_speedy
ball.speedx = -local_speedx
ball.x += 1 # makes sure ball doesn't get stuck to side
if ball.right_touches(targets[i]):
score += target_dict[i]
ball.move_to_stop_overlapping(targets[i])
ball.speedy = local_speedy
ball.speedx = -local_speedx
ball.x -= 1
ball.move_speed()
# OPTIONAL FEATURES 2. Collectibles
for each in coins:
if ball.touches(each):
balls += 1 # if the ball touches a coin, the user gets an extra ball and the coin is removed
coins.remove(each) # stop drawing the coin
if ball.top > camera.bottom: # if the ball falls below the bottom of the screen
balls -= 1 # subtract 1 from the balls total
if balls > 0: # if there are still balls left we will redraw a new one
ball = gamebox.from_circle(r.randrange(300, 501, 70), 120,
'dark blue', 4)
ball.speedx = r.randrange(
0, 3, 2) - 1 # gives the ball a random speed between -1 and 1
else: # if there are no balls left gameover
gameover = True
camera.draw(ball)
import gamebox
camera = gamebox.Camera(800, 600)
# scenery
background = gamebox.from_image(400, 300, 'uva_court.jpg')
background.scale_by(0.8)
court = gamebox.from_color(400, 500, 'blue', 300, 50)
backboard = gamebox.from_color(475, 400, 'white', 30, 150)
hoop = gamebox.from_image(445, 350, 'hoop.png')
hoop.scale_by(0.1)
scenery = [background, court, backboard, hoop] # Things that are stationary
obstacles = [court, backboard] # things that are "solid"
# interactive
ball = gamebox.from_circle(300, 465, 'orangered', 10)
# stats
score = 0
lives = 3
# physics
gravity = 0.75
jump_speed = 20
# other
scored_since_landed = False
def draw_scenery():
"""Draw all the stationary items"""
import pygame
import gamebox
camera = gamebox.Camera(600, 600)
# player
player1 = gamebox.from_color(300, 300, 'green', 20, 20)
player2 = gamebox.from_color(300, 300, 'magenta', 20, 20)
# ball
ball = gamebox.from_circle(100, 100, 'red', 5)
ball.speedx = 8
ball.speedy = 7
# arena
arena = [
gamebox.from_color(0, 300, 'black', 100, 600),
gamebox.from_color(600, 300, 'black', 100, 600),
gamebox.from_color(300, 0, 'black', 600, 100),
gamebox.from_color(300, 600, 'black', 600, 100),
gamebox.from_color(400, 400, 'black', 50, 50)
]
score1 = 3
score2 = 3
winner = None
def touching(box1, box2):
'''ww
a return true if the boxes are touching
'''
if box1.right_touches(box2):