def appInit(self):
"""
Setup the scene and add the shapes to it
"""
self.shapes = []
glClearColor(1.0, 1.0, 1.0, 1.0)
glColor(0.0, 0.0, 0.0)
# glPointSize(4.0)
glMatrixMode(GL_PROJECTION)
glLoadIdentity()
gluOrtho2D(0.0, WINDOW_WIDTH, 0.0, WINDOW_HEIGHT)
tri = Triangle()
tri.set_location(10, 50)
tri.set_color(0, 1, 1)
self.shapes.append(tri)
tri = Triangle()
tri.set_location(70, 50)
tri.set_color(1, 0, 1)
tri.set_size(2, 2)
self.shapes.append(tri)
tri = Triangle()
tri.set_location(300, 50)
self.shapes.append(tri)
self.Bind(wx.EVT_CONTEXT_MENU, self.OnContextMenu)
def appInit(self):
"""
Setup the scene and add the shapes to it
"""
glClearColor(1.0, 1.0, 1.0, 1.0)
glColor(0.0, 0.0, 0.0)
glPointSize(4.0)
glMatrixMode(GL_PROJECTION)
glLoadIdentity()
gluOrtho2D(0.0, WINDOW_WIDTH, 0.0, WINDOW_HEIGHT)
self.scene = Scene()
tri = Triangle()
tri.set_location(10, 50)
tri.set_color(0, 1, 1)
self.scene.addShape(tri)
tri = Triangle()
tri.set_location(70, 50)
tri.set_color(1, 0, 1)
tri.set_size(2, 2)
self.scene.addShape(tri)
tri = Triangle()
tri.set_location(300, 50)
self.scene.addShape(tri)
def appInit(self):
"""
Create the scene and intitialize the shapes to be put in the scene
"""
self.shapes = []
# set viewing projection
glClearColor(1.0, 1.0, 1.0, 0.0)
glColor(0.0, 0.0, 0.0)
glMatrixMode(GL_PROJECTION)
glLoadIdentity()
gluOrtho2D(0.0, WINDOW_WIDTH, 0.0, WINDOW_HEIGHT)
tri = Triangle()
tri.set_location(10, 50)
tri.set_color(0, 1, 1)
self.shapes.append(tri)
tri = Triangle()
tri.set_location(70, 50)
tri.set_color(1, 0, 1)
tri.set_size(2, 2)
self.shapes.append(tri)
tri = Triangle()
tri.set_location(300, 50)
self.shapes.append(tri)
def __init__(self, x, y, resource, font):
self.resource = resource
self.font = font
# counter number initialization
self.num = SelectableText(font, '0', resource.value, 0, 0)
font_height = get_font_height(font)
font_width = get_font_width(font)
# store this center location long-term for re-centering
self.num_center = (int(x + ResourceCounter.font_x_offset * font_width),
int(y +
ResourceCounter.font_y_offset * font_height))
self.num.rect.center = self.num_center
# arrow initialization
arrow_size = int(font_height * ResourceCounter.arrow_size_modifier)
arrow_offset = int(font_height / 2 +
font_height * ResourceCounter.arrow_separation)
self.up_arrow = Triangle(x, y - arrow_offset, arrow_size,
ResourceCounter.arrow_color)
self.down_arrow = Triangle(x,
y + arrow_offset,
arrow_size,
ResourceCounter.arrow_color,
pointed_up=False)
# collision rects for detecting mouse / clicks
self.up_arrow_collision = pygame.rect.Rect(0, 0, arrow_size,
arrow_size)
self.up_arrow_collision.center = (x, y - arrow_offset)
self.down_arrow_collision = pygame.rect.Rect(0, 0, arrow_size,
arrow_size)
self.down_arrow_collision.center = (x, y + arrow_offset)
def main():
s1 = Square(4)
s2 = Square(7)
t1 = Triangle(3, 5)
t2 = Triangle(7, 8)
shape_list = s1, s2, t1, t2
for n, shape in enumerate(shape_list):
print("Shape", n, "is a", shape.shape_type, "with an area of", shape.area())
def mousePressEvent(self, event): # отслеживание кликов по мыши и добавление фигуры в список
if self.instrument == 'brush':
self.objects.append([])
self.objects[-1].append(BrushPoint(event.x(), event.y(), self.thickness, self.color))
self.update()
elif self.instrument == 'line':
self.objects.append(Line(event.x(), event.y(), event.x(), event.y(), self.thickness, self.color))
self.update()
elif self.instrument == 'circle':
self.objects.append(Circle(event.x(), event.y(), event.x(), event.y(), self.thickness, self.color))
self.update()
elif self.instrument == 'rubber':
self.objects.append([])
self.objects[-1].append(BrushPoint(event.x(), event.y(), self.thickness, QColor(240, 240, 240)))
self.update()
elif self.instrument == 'rect':
self.objects.append(Rect(event.x(), event.y(), 0, 0, self.thickness, self.color))
self.update()
elif self.instrument == 'square':
self.objects.append(Rect(event.x(), event.y(), 0, 0, self.thickness, self.color))
self.update()
elif self.instrument == 'triangle':
self.objects.append(Triangle(event.x(), event.y(), event.x(), event.y(), self.thickness, self.color))
self.update()
elif self.instrument == 'sqtriangle':
self.objects.append(SqTriangle(event.x(), event.y(), event.x(), event.y(), self.thickness, self.color))
self.update()
def setUp(self):
self.init_kwargs = {}
self.init_kwargs["xCoord"] = 50
self.init_kwargs["yCoord"] = 50
measurements = {"side": 50}
self.init_kwargs["measurements"] = measurements
self.area = 4.33 * measurements["side"]**2
self.shape = Triangle(**self.init_kwargs)
def main():
shapes: list = [
Circle(5),
Rectangle(3, 3),
Rectangle(4, 4),
Triangle(3, 4),
]
for shape in shapes:
logging.debug(
"type: {0}, circumference = {1:.2f}, area = {2:.2f}".format(
type(shape), shape.circumference(), shape.area()))
def fan_triangulation(vertices, normals, material):
triangles = []
for index in range(2, len(vertices) - 1):
if len(normals) > 1:
tri = Triangle.smooth_triangle(vertices[1], vertices[index],
vertices[index + 1], normals[1],
normals[index], normals[index + 1])
else:
tri = Triangle(vertices[1], vertices[index], vertices[index + 1])
tri.material = material
triangles.append(tri)
return triangles
def main():
apoint = Point(x=100, y=80)
bpoint = Point(x=160, y=200)
cpoint = Point(x=220, y=80)
circle = Circle(radius=10, point=apoint)
triangle = Triangle(lines=[StraightLine(a=apoint, b=bpoint), StraightLine(a=apoint, b=cpoint),
StraightLine(a=bpoint, b=cpoint)])
canvas1 = Canvas(250, 250, Point(x=200, y=200), "canvas1", [triangle, circle], show_cp=True)
canvas2 = Canvas(260, 260, Point(x=450, y=450), "canvas2", [circle], show_cp=True)
canvas3 = Canvas(270, 270, Point(x=710, y=710), "canvas3", [circle], show_cp=True)
canvas_list = [canvas1, canvas2, canvas3]
screen = TkinterScreen()
screen.configure(canvas_list)
board = Board(screen)
board.draw_at()
def createShapes():
shapes = []
for i in range(randint(5, 10)):
v = randint(1, 4)
x, y = randint(0, 700), randint(0, 700)
length = randint(10, 100)
width = randint(10, 100)
colorChoice = COLORS[randint(0, len(COLORS) - 1)]
if v == 1:
pass
shapes.append(Triangle((x, y), colorChoice, length))
if v == 2:
shapes.append(Rectangle((x, y), colorChoice, length, width))
if v == 3:
shapes.append(Square((x, y), colorChoice, length))
if v == 4:
shapes.append(Circle((x, y), colorChoice, length))
return shapes
def setUp(self):
self.triangle_init_kwargs = {}
self.rectangle_init_kwargs = {}
self.triangle_init_kwargs["xCoord"] = 50
self.triangle_init_kwargs["yCoord"] = 50
self.rectangle_init_kwargs["xCoord"] = 50
self.rectangle_init_kwargs["yCoord"] = 50
triangle_measurements = {"side": 50}
rectangle_measurements = {"width": 50, "length": 50}
self.triangle_init_kwargs["measurements"] = triangle_measurements
self.rectangle_init_kwargs["measurements"] = rectangle_measurements
self.side = 50
self.length = 50
self.width = 50
self.tag = "test"
self.area = (4.33 * triangle_measurements["side"]**2) + (
rectangle_measurements["width"] * rectangle_measurements["length"])
triangle = Triangle(**self.triangle_init_kwargs)
rectangle = Rectangle(**self.rectangle_init_kwargs)
self.components = [triangle, rectangle]
self.shape = CompositeShape(tag=self.tag, components=self.components)
def _fan_triangulation(self, line):
triangles = []
if '/' in line[1]:
v1 = line[1].split('/')[0]
n1 = line[1].split('/')[2]
else:
v1 = line[1]
for i in range(2, len(line) - 1):
if '/' in line[i]:
v2 = line[i].split('/')[0]
n2 = line[i].split('/')[2]
else:
v2 = line[i]
if '/' in line[i + 1]:
v3 = line[i + 1].split('/')[0]
n3 = line[i + 1].split('/')[2]
else:
v3 = line[i + 1]
try:
if len(self.normals) > 0:
tri = SmoothTriangle(
self.default_material, matrix4x4identity(),
self.vertices[int(v1)], self.vertices[int(v2)],
self.vertices[int(v3)], self.normals[int(n1)],
self.normals[int(n2)], self.normals[int(n3)])
else:
tri = Triangle(self.default_material, matrix4x4identity(),
self.vertices[int(v1)],
self.vertices[int(v2)],
self.vertices[int(v3)])
triangles.append(tri)
except IndexError as e:
print(e, v1, v2, v3, n1, n2, n3)
raise
return triangles
def step_create_triangle_t_with_points(context, x1, y1, z1, \
x2, y2, z2, \
x3, y3, z3):
context.t = Triangle(point(x1, y1, z1), point(x2, y2, z2),
point(x3, y3, z3))
from shapes import Triangle, Rectangle, Oval
rect1 = Rectangle()
rect1.set_width(200)
rect1.set_height(100)
rect1.set_color("blue")
rect1.draw()
rect2 = Rectangle()
rect2.set_width(50)
rect2.set_height(150)
rect2.set_color("yellow")
rect2.set_x(150)
rect2.set_y(100)
rect2.draw()
tri = Triangle(5, 5, 100, 5, 100, 200)
tri.set_color("red")
tri.draw()
egg = Oval()
egg.set_color("tan")
egg.set_height(200)
egg.set_width(150)
egg.set_x(250)
egg.set_y(10)
egg.draw()
star1 = Triangle(5, 300, 55, 350, 105, 300, 'black')
star1.draw()
star2 = Triangle(5, 325, 55, 275, 105, 325, 'black')
star2.draw()
cir = Oval()
cir.set_color("green")
cir.set_height(50)
cir.set_width(50)
from shapes import Triangle, Oval, Rectangle
from random import randint
rect1 = Rectangle()
rect1.set_width(200)
rect1.set_height(100)
rect1.set_color("blue")
rect2 = Rectangle()
rect2.set_width(randint(10,150))
rect2.set_height(randint(10,150))
rect2.set_color("red")
rect2.set_x(randint(0,400))
rect2.set_y(randint (0,400))
ovl1=Oval()
ovl1.randomize()
tri1 = Triangle()
tri1.randomize()
from shapes import Point from shapes import Triangle high = Point(0, 0, 4) low = Point(0, 0, -1) we = Point(0, 0, 3) we2 = Point(0, 0, 3) print we.is_equal(high) print we.is_equal(we2) tri = Triangle(high, low, we) print "high: " + tri.z_high.point_tos() + " expected: 0 0 4" print "low: " + tri.z_low.point_tos() + " expected: 0 0 -1" tri2 = Triangle(low, high, we) print "high: " + tri2.z_high.point_tos() + " expected: 0 0 4" print "low: " + tri2.z_low.point_tos() + " expected: 0 0 -1" tri3 = Triangle(we, high, low) print "high: " + tri3.z_high.point_tos() + " expected: 0 0 4" print "low: " + tri3.z_low.point_tos() + " expected: 0 0 -1" tri4 = Triangle(we, low, high) print "high: " + tri4.z_high.point_tos() + " expected: 0 0 4" print "low: " + tri4.z_low.point_tos() + " expected: 0 0 -1" tri5 = Triangle(high, we, low) print "high: " + tri5.z_high.point_tos() + " expected: 0 0 4" print "low: " + tri5.z_low.point_tos() + " expected: 0 0 -1"
from shapes import Triangle, Rectangle, Oval, Paper tri_sup = Triangle(50, 150, 20, 50, 80, 50) tri_sup.draw() Paper.display()
from shapes import Paper, Shape, Triangle, Rectangle, Oval
#*This Shape class is created in the shapes.py file
paper = Paper()
rect1 = Rectangle()
rect1.set_width(200)
rect1.set_height(100)
rect1.set_x(0)
rect1.set_y(0)
rect1.set_color("blue")
rect1.draw()
rect2 = Rectangle()
rect2.set_width(50)
rect2.set_height(100)
rect2.set_color("red")
rect2.draw()
oval1 = Oval()
oval1.randomize()
oval1.draw()
tri1 = Triangle(121, 223, 2, 2, 234, 3)
tri1.draw()
paper.display()
path = Rectangle()
path.set_x(265)
path.set_y(425)
path.set_width(70)
path.set_height(75)
path.set_color("brown")
path.draw()
window_l = Rectangle()
window_l.set_x(175)
window_l.set_y(300)
window_l.set_width(65)
window_l.set_height(65)
window_l.set_color("lightblue")
window_l.draw()
window_r = Rectangle()
window_r.set_x(360)
window_r.set_y(300)
window_r.set_width(65)
window_r.set_height(65)
window_r.set_color("lightblue")
window_r.draw()
roof = Triangle(150, 250, 300, 150, 450, 250)
roof.set_color("purple")
roof.draw()
Paper.display()
def main():
#---- Prepare
# Game field size
SCREEN_W, SCREEN_H = (640, 420)
# Shape drag machine states
(ST_MOVE, ST_ROTATE, ST_NONE) = range(3)
state = ST_NONE
# Setup game window
display.set_caption(TITLE)
display.set_icon(image.load('pytang.bmp'))
# Create and setup game field
screen = display.set_mode((SCREEN_W, SCREEN_H))
screen.fill(BACKGROUND_COLOR)
# Create a game field copy for internal purposes
background = screen.copy()
# Game objects - different shapes
shapes = [
Triangle((0, 0), (60, 60), (0, 120)),
Triangle((0, 0), (60, 0), (30, 30)),
Triangle((60, 0), (120, 0), (120, 60)),
Triangle((0, 120), (60, 60), (120, 120)),
Triangle((60, 60), (90, 30), (90, 90)),
Parallelogram((60, 0), (90, 30), (60, 60)),
Parallelogram((90, 30), (120, 60), (120, 120))
]
# Game object bounding rectangles as a dictionary,
# where key is the game object instance, and
# the appropriate value is it's bounding rectangle
frames = {}
# Each shape is located in a separate cell of the game field
# at first time. The game field is divided by 3 rows and
# 3 columns, ergo, 3 x 3 = 9 cells.
# One cell size
CELL_SIZE = (SCREEN_W / 3, SCREEN_H / 3)
# Shapes initial locations as (column, row) tuples.
locations = ((0, 0), (1, 0), (2, 1), (2, 2), (0, 1), (0, 2), (2, 0))
if DRAFT_MODE:
draw_shape = _draw_shape_draft
else:
draw_shape = _draw_shape_filled
# Move shapes to the initial locations
for i in range(len(shapes)):
shapes[i].move_to([(locations[i][coord] + 0.5) * CELL_SIZE[coord]
for coord in (0, 1)])
frames[shapes[i]] = draw_shape(screen, shapes[i])
#---- Event loop
do_exit = False
# Shape object which is moving or rotating now
active_shape = None
# Mouse previous position, is valid when some shape
# is rotating or moving
prev_pos = None
while not do_exit:
display.flip()
for ev in event.get():
# Game is over - user close main window
if ev.type == QUIT:
do_exit = True
break
# Mouse button is push down:
# user wants to move or rotate one of the shapes
elif (ev.type == MOUSEBUTTONDOWN) and (state == ST_NONE):
touchpoint = mouse.get_pos()
# Search for the first shape including
# the mouse button down point.
for shape in shapes:
if shape.include(touchpoint):
active_shape = shape
prev_pos = touchpoint
# If the touchpoint is laying inside the
# inner circle, the shape s.b. moved;
# the shape s.b. rotated otherwise
if (distance(touchpoint, shape.get_ref_point()) <=
shape.get_r_inner()):
state = ST_MOVE
else:
state = ST_ROTATE
# Take the active shape from the shapes
# common list,
# draw other shapes on the background surface.
shapes.remove(active_shape)
background.fill(BACKGROUND_COLOR)
for shape in shapes:
draw_shape(background, shape)
break
# Mouse button is up: shape moving/rotating is done
elif (ev.type == MOUSEBUTTONUP) and (state != ST_NONE):
shapes.append(active_shape)
active_shape = None
state = ST_NONE
# Mouse is moving. If the mouse button is down
# (i.e. if we are in ST_MOVE or ST_ROTATE state),
# the active shape s.b. moved or rotated.
elif (ev.type == MOUSEMOTION) and (state != ST_NONE):
screen.blit(background, frames[active_shape].topleft,
frames[active_shape])
curr_pos = mouse.get_pos()
if state == ST_MOVE:
active_shape.move_by(vectorAB(prev_pos, curr_pos))
else:
active_shape.rotate(
inclination(active_shape.get_ref_point(), curr_pos) -
inclination(active_shape.get_ref_point(), prev_pos))
prev_pos = curr_pos
frames[active_shape] = draw_shape(screen, active_shape)
# Game is over, print shapes location if needed
if PRINT_OUT:
for i in range(len(shapes)):
print "Shape %u vertices:" % (i, )
for vertex in shapes[i].get_vertices():
print "\t (%.2f, %.2f)" % vertex
def step_create_triangle_t(context):
context.t = Triangle(context.p1, context.p2, context.p3)
rect1.set_width(10)
rect1.set_height(10)
rect1.set_color('red')
rect1.set_x(100)
rect1.set_y(100)
rect1.draw()
rect2 = Rectangle()
rect2.set_width(10)
rect2.set_height(10)
rect2.set_color('red')
rect2.set_x(200)
rect2.set_y(100)
tri = Triangle(160, 160, 170, 170, 150, 170)
tri.set_color('green')
tri.set_x(150)
tri.set_y(150)
rect3 = Rectangle()
rect3.set_width(100)
rect3.set_height(10)
rect3.set_color('red')
rect3.set_x(100)
rect3.set_y(200)
rect1.draw()
rect2.draw()
rect3.draw()
tri.draw()
rect1 = Rectangle()
rect1.set_width(200)
rect1.set_width(100)
rect1.set_color("blue")
rect1.draw()
rect2 = Rectangle()
rect2.set_x(100)
rect2.set_y(100)
rect2.set_width(100)
rect2.set_width(50)
rect2.set_color("red")
rect2.draw()
oval = Oval()
oval.randomize()
oval.draw()
triangle = Triangle(5, 5, 100, 100, 200, 100)
triangle.set_x(150)
triangle.set_y(250)
triangle.set_color("green")
triangle.draw()
paper.display()
from shapes import Triangle, Rectangle, Oval, Paper
rect1 = Rectangle()
rect1.set_width(200)
rect1.set_height(100)
rect1.set_color("blue")
rect1.draw()
rect2 = Rectangle()
rect2.set_width(50)
rect2.set_height(150)
rect2.set_color("yellow")
rect2.set_x(100)
rect2.set_y(100)
rect2.draw()
oval1 = Oval()
oval1.randomize()
oval1.draw()
tri1 = Triangle(5, 5, 100, 5, 100, 200)
tri1.draw()
Paper.display()
from shapes import Paper, Triangle, Rectangle, Oval
paper = Paper()
rect1 = Rectangle()
rect1.set_width(200)
rect1.set_height(100)
rect1.set_color("orange")
rect1.draw()
rect2 = Rectangle()
rect2.set_width(200)
rect2.set_height(100)
rect2.set_color("yellow")
rect2.set_x(100)
rect2.set_y(100)
rect2.draw()
tri1 = Triangle(5, 5, 12, 5, 20, 30)
tri1.set_color("purple")
tri1.set_x(398)
tri1.set_y(500)
tri1.draw()
oval1 = Oval()
oval1.randomize(25, 100)
oval1.draw()
paper.display()
from guizero import App, PushButton
from shapes import Triangle, Rectangle, Oval, Paper
def changeMe():
r.move(20, -20)
t2.move(5, 0)
app = App(width=600, height=600)
button = PushButton(app, changeMe, text="Click me")
p = Paper(app)
t = Triangle(p)
t.randomize()
t.draw()
t2 = Triangle(p)
t2.randomize()
t2.draw()
r = Rectangle(p)
r.randomize()
r.width = 400
r.draw()
r.color = 'red'
r.width = 20
app.display()
from shapes import Paper, Triangle, Rectangle, Oval
# Instance of paper
paper = Paper()
# instance of the rectangle
rect1 = Rectangle()
rect2 = Rectangle()
oval1 = Oval()
triangle = Triangle(0,0,20,0,40,40,color="black")
# Attributes
rect1.set_width(200)
rect1.set_height(100)
rect1.set_color("blue")
rect2.set_width(50)
rect2.set_height(150)
rect2.set_color("yellow")
oval1.randomize(smallest=20, largest=200)
# setting the position of the rect1
rect2.set_y(100)
rect2.set_x(100)
# draw the rectangle on paper
rect1.draw()
rect2.draw()
self.label = Label(master, text="This is the Root Window")
self.label.pack()
self.close_button = Button(master, text="Close", command=master.quit)
self.close_button.pack()
rectangle1 = Rectangle()
rectangle1.set_width(200)
rectangle1.set_height(100)
rectangle1.set_color("blue")
rectangle1.set_x(50)
rectangle1.set_y(250)
triangle1 = Triangle()
# triangle1.randomise()
triangle1.set_color("red")
triangle1.x=150
triangle1.y=150
triangle1.x2=150
triangle1.y2=200
triangle1.x3=200
triangle1.y3=150
oval1 = Oval()
# oval1.randomise()
oval1.set_color("green")
oval1.set_x(300)
oval1.set_y(300)
def test_sum_area_of_shapes(self):
shapes = [Circle(2), Rectangle(2, 4), Triangle(5, 5)]
self.assertAlmostEqual(sum_area_of_shapes(shapes), 33.07, 2)