def bezier3x_simplified(self, data, canvas, i):
# points = [[beginning], [beginning_midifier], [end], [end_midifier]]
# points = [[200, 400], [300, 250], [450, 500], [500, 475]]
canvas_w = self.layout.game_w
canvas_h = self._step * data[3]
x_center = self.layout.game_w // 2
y_center = self._step * data[3] // 2
first = self.start_positions
last = self.end_positions
bezier = [[[0, 0] for j in range(4)] for j in range(3)]
# points = ex.simplified_points(self.start_positions[i],self.end_positions[i],canvas_w,canvas_h,x_center,y_center,self._step)
bezier[0][0] = Vector2(first[i])
bezier[0][1] = Vector2(random.randrange(first[i][0] - self._step * 2, first[i][0] + self._step * 2),
random.randrange(self._step * 3, canvas_h)) # mod1 #first point modifier
# p1
if first[i][0] < x_center:
x_range = (first[i][0] + self._step, canvas_w - self._step)
else:
x_range = (self._step, first[i][0] - self._step)
y_range = (self._step, y_center - self._step // 2)
# line 1 end
bezier[0][2] = Vector2(random.randrange(*x_range), random.randrange(
*y_range)) # Vector2(random.randrange(self._step,canvas_w-self._step),random.randrange(self._step,canvas_h-self._step)) #first line end
bezier[0][3] = Vector2(bezier[0][2][0], bezier[0][2][1] - self._step)
# line 2 start
bezier[1][0] = bezier[0][2]
bezier[1][1] = Vector2(bezier[0][2][0], bezier[0][2][
1] + self._step) # bezier[0][2] + Vector2(-(Vector2.from_points(bezier[0][2], bezier[0][3]))) #3rd point modifier
# p2
if last[i][0] < x_center:
x_range = (last[i][0] + self._step, canvas_w - self._step)
p4_x_mod = last[i][0] - self._step
else:
x_range = (self._step, last[i][0] - self._step)
p4_x_mod = last[i][0] + self._step
y_range = (canvas_h - y_center, round(canvas_h - self._step * 0.5))
bezier[1][2] = Vector2(random.randrange(*x_range), random.randrange(*y_range)) # second line end
bezier[1][3] = Vector2(bezier[1][2][0] + self._step, bezier[1][2][1] - self._step)
# line 3 start
bezier[2][0] = bezier[1][2]
bezier[2][1] = Vector2(bezier[1][2][0] - self._step, bezier[1][2][
1] + self._step) # bezier[1][2] + Vector2(-(Vector2.from_points(bezier[1][2], bezier[1][3]))) #5th point modifier
# line 3 end
bezier[2][2] = Vector2(self.end_positions[i]) # last point
bezier[2][3] = Vector2(p4_x_mod, random.randrange(2 * self._step,
canvas_h - self._step)) # Vector2(random.randrange(self.end_positions[i][0]-self._step//2,self.end_positions[i][0]+self._step//2),random.randrange(self._step*(data[3]-3),self._step*(data[3]-1))) #6th point modifier
bezier_points = []
# labels = ["p1s","mod","p1e","mod","p2s","mod","p2e","mod","p3s","mod","p3e","mod"]
for j in range(3):
bezier_points.extend(ex.DrawBezier(bezier[j]))
self.ready_lines.append(bezier_points)
def bezier_lines(self, data, canvas, i):
# points = [[beginning], [beginning_midifier], [end_midifier], [end]]
# points = [[200, 400], [300, 250], [450, 500], [500, 475]]
modifiers = [[0, 0], [0, 0]]
modifiers[0] = [random.randrange(0, self.layout.game_w), random.randrange(self._step * 2, self._step * data[3])]
modifiers[1] = [random.randrange(0, self.layout.game_w), random.randrange(0, self._step * (data[3] - 2))]
points = [Vector2(self.start_positions[i]), Vector2(modifiers[0]), Vector2(self.end_positions[i]),
Vector2(modifiers[1])]
bezier_points = ex.DrawBezier(points)
self.ready_lines.append(bezier_points)
def bezier2x_lines(self, data, canvas, i):
# points = [[beginning], [beginning_midifier], [end], [end_midifier]]
# points = [[200, 400], [300, 250], [450, 500], [500, 475]]
canvas_w = self.layout.game_w
canvas_h = self._step * data[3]
bezier = [[[0, 0] for j in range(4)] for j in range(2)]
# line 1 start
bezier[0][0] = Vector2(self.start_positions[i])
bezier[0][1] = Vector2(random.randrange(self._step, canvas_w - self._step),
random.randrange(self._step * 2, canvas_h - self._step)) # mod1 #first point modifier
# line 1 end
bezier[0][2] = Vector2(random.randrange(self._step, canvas_w - self._step),
random.randrange(self._step, canvas_h - self._step)) # first line end
bezier[0][3] = Vector2(ex.rand_safe_curve(bezier[0][2], canvas_w, canvas_h))
# line 3 start
bezier[1][0] = bezier[0][2]
bezier[1][1] = bezier[0][2] + Vector2(-(Vector2.from_points(bezier[0][2], bezier[0][3]))) # 5th point modifier
# line 3 end
bezier[1][2] = Vector2(self.end_positions[i]) # last point
bezier[1][3] = Vector2(random.randrange(self._step, canvas_w - self._step),
random.randrange(self._step, self._step * (data[3] - 1))) # 6th point modifier
bezier_points = []
for j2 in range(2):
bezier_points.extend(ex.DrawBezier(bezier[j2]))
self.ready_lines.append(bezier_points)
def bezier2x_lines(self, data, canvas, i):
#points = [[beginning], [beginning_midifier], [end], [end_midifier]]
#points = [[200, 400], [300, 250], [450, 500], [500, 475]]
canvas_w = self.layout.game_w
canvas_h = self._step*data[3]
x_center = self.layout.game_w //2
y_center = self._step*data[3]//2
bezier = [[[0,0] for j in range(4)] for j in range(2)]
#line 1 start
bezier[0][0] = Vector2(self.start_positions[i])
bezier[0][1] = Vector2(random.randrange(self._step,canvas_w-self._step),random.randrange(self._step*2,canvas_h-self._step))#mod1 #first point modifier
#line 1 end
bezier[0][2] = Vector2(random.randrange(self._step,canvas_w-self._step),random.randrange(self._step,canvas_h-self._step)) #first line end
bezier[0][3] = Vector2(ex.rand_safe_curve(bezier[0][2],canvas_w,canvas_h))
#line 3 start
bezier[1][0] = bezier[0][2]
bezier[1][1] = bezier[0][2] + Vector2(-(Vector2.from_points(bezier[0][2], bezier[0][3]))) #5th point modifier
#line 3 end
bezier[1][2] = Vector2(self.end_positions[i]) #last point
bezier[1][3] = Vector2(random.randrange(self._step,canvas_w-self._step),random.randrange(self._step,self._step*(data[3]-1))) #6th point modifier
bezier_points = []
for j2 in range(2):
bezier_points.extend(ex.DrawBezier(bezier[j2]))
self.ready_lines.append(bezier_points)
def bezier3x_lines(self, data, canvas, i):
# points = [[beginning], [beginning_midifier], [end], [end_midifier]]
# points = [[200, 400], [300, 250], [450, 500], [500, 475]]
canvas_w = self.layout.game_w
canvas_h = self._step * data[3]
x_center = self.layout.game_w // 2
y_center = self._step * data[3] // 2
bezier = [[[0, 0] for j in range(4)] for j in range(3)]
# line 1 start
bezier[0][0] = Vector2(self.start_positions[i])
bezier[0][1] = Vector2(random.randrange(self._step, canvas_w - self._step),
random.randrange(self._step * 2, canvas_h - self._step)) # mod1 #first point modifier
# line 1 end
bezier[0][2] = Vector2(random.randrange(self._step, canvas_w - self._step),
random.randrange(self._step, canvas_h - self._step)) # first line end
bezier[0][3] = Vector2(ex.rand_safe_curve(bezier[0][2], canvas_w, canvas_h))
# line 2 start
bezier[1][0] = bezier[0][2]
bezier[1][1] = bezier[0][2] + Vector2(-(Vector2.from_points(bezier[0][2], bezier[0][3]))) # 3rd point modifier
# line 2 end
if bezier[0][2][0] > x_center: # if first point is on the right the second will be on the left
x_range = [self._step, x_center]
else:
x_range = [x_center, canvas_w - self._step]
if bezier[0][2][1] > y_center: # if first point is on the bottom the second will be on the over the center
y_range = [self._step, y_center]
else:
y_range = [y_center, canvas_h - self._step]
bezier[1][2] = Vector2(random.randrange(*x_range), random.randrange(*y_range)) # second line end
bezier[1][3] = Vector2(ex.rand_safe_curve(bezier[1][2], canvas_w, canvas_h))
# line 3 start
bezier[2][0] = bezier[1][2]
bezier[2][1] = bezier[1][2] + Vector2(-(Vector2.from_points(bezier[1][2], bezier[1][3]))) # 5th point modifier
# line 3 end
bezier[2][2] = Vector2(self.end_positions[i]) # last point
bezier[2][3] = Vector2(random.randrange(self._step, canvas_w - self._step),
random.randrange(self._step, self._step * (data[3] - 1))) # 6th point modifier
bezier_points = []
for j in range(3):
bezier_points.extend(ex.DrawBezier(bezier[j]))
self.ready_lines.append(bezier_points)
def draw_circles(self):
r = self.size // 2 - self.size // 10
m = (self.size - r * 2) // 2
angles = []
angle_start = []
angle_start_float = []
for i in range(len(self.numbers)):
angles.append(self.numbers[i] * 3.6)
if i == 0:
angle_start.append(0)
angle_start_float.append(0)
else:
angle_start.append(int(angle_start_float[-1] - angles[i]))
angle_start_float.append(angle_start_float[-1] - angles[i])
for i in range(len(self.numbers)):
offset = 0
# Center and radius of pie chart
cx = m + r
cy = m + r
#create vector to push the pieces away from the centre towards middle of the arch
centre_vect = Vector2().from_points([cx, cy], [
cx + int(
round(r * cos((
(angles[i] - angles[i] / 2.0) + angle_start_float[i]) *
pi / 180))),
cy + int(
round(r * sin((
(angles[i] - angles[i] / 2.0) + angle_start_float[i]) *
pi / 180)))
])
centre_vect.normalize()
p = [(cx + centre_vect[0] * offset, cy + centre_vect[1] * offset)]
# Get points on arc
for n in range(-1 + angle_start[i],
1 + int(round(angle_start_float[i] + angles[i]))):
x = cx + int(round(r * cos(
(n) * pi / 180))) + centre_vect[0] * offset
y = cy + int(round(r * sin(
(n) * pi / 180))) + centre_vect[1] * offset
p.append((x, y))
p.append(
(cx + centre_vect[0] * offset, cy + centre_vect[1] * offset))
# Draw pie segment
if len(p) > 2 and angles[i] > 0:
pygame.draw.polygon(self.canvas, self.colors[i], p)
if self.numbers[i] not in [0, 100]:
pygame.draw.polygon(self.canvas, self.b_colors[i], p, 2)
else:
pygame.draw.polygon(self.canvas, self.b_colors[i], p[1:-1],
2)
def draw_circles(self):
if self.numbers == [0, 0]:
pass
elif self.numbers == [1, 1]:
#draw circle
r = self.size // 2 - self.size // 10
m = (self.size - r * 2) // 2
cx = m + r
cy = m + r
#circle(Surface, color, pos, radius, width=0) -> Rect
pygame.draw.circle(self.canvas, self.color1, (cx, cy), r, 0)
pygame.draw.circle(self.canvas, self.border_color1, (cx, cy), r, 1)
else:
r = self.size // 2 - self.size // 10
m = (self.size - r * 2) // 2
angle = 360.0 / self.numbers[1]
angle_start = int(round((self.numbers[0] * angle) / 2.0)) - 1
for i in range(self.numbers[1]):
if i < self.numbers[0]:
col = self.color1
bd_col = self.border_color1
#offset = self.size // (40 - self.numbers[1] * 2)
offset = self.offset_selected
else:
col = self.color2
bd_col = self.border_color2
offset = self.offset_unselected
#offset = self.size // (80 - self.numbers[1] * 2)
# Center and radius of pie chart
cx = m + r
cy = m + r
#create vector to push the pieces away from the centre towards middle of the arch
centre_vect = Vector2().from_points([cx, cy],
[cx + int(round(r * cos(((angle*(i+1) - angle / 2.0) - angle_start) * pi / 180))),
cy + int(round(r * sin(((angle*(i+1) - angle / 2.0) - angle_start) * pi / 180)))])
centre_vect.normalize()
p = [(cx + centre_vect[0] * offset, cy + centre_vect[1] * offset)]
# Get points on arc
for n in range(int(round(-1 + angle*i)), int(round(angle*(i+1)))):
x = cx + int(round(r * cos((n-angle_start) * pi / 180))) + centre_vect[0] * offset
y = cy + int(round(r * sin((n-angle_start) * pi / 180))) + centre_vect[1] * offset
p.append((x, y))
p.append((cx + centre_vect[0] * offset, cy + centre_vect[1] * offset))
# Draw pie segment
if len(p) > 2:
pygame.draw.polygon(self.canvas, col, p)
pygame.draw.polygon(self.canvas, bd_col, p, self.border_width)
def draw_circles(self):
r = self.size // 2 - self.size // 10
m = (self.size - r * 2) // 2
angles = (self.number * 3.6, (100 - self.number) * 3.6)
#angle_start = [int(angles[0]), 0] #int(round((self.number * angle) / 2.0))
#angle_start = [int(round(angles[0] / 2.0 - angles[0])), int(round(angles[0] / 2.0)) + int(angles[0])]
angle_start = [int(round(angles[0] / 2.0 - angles[0])) + 1, int(round(angles[0] / 2.0 - angles[0]))+int(angles[0]) + 1]
#angle_start = [270, 270+int(angles[0])]
for i in range(2):
if i == 0:
col = self.color1
bd_col = self.border_color1
offset = self.size // 40
else:
col = self.color2
bd_col = self.border_color2
offset = self.size // 40
# Center and radius of pie chart
cx = m + r
cy = m + r
#create vector to push the pieces away from the centre towards middle of the arch
centre_vect = Vector2().from_points([cx, cy],
[cx + int(round(r * cos(((angles[i] - angles[i] / 2.0) + angle_start[i]) * pi / 180))),
cy + int(round(r * sin(((angles[i] - angles[i] / 2.0) + angle_start[i]) * pi / 180)))])
centre_vect.normalize()
p = [(cx + centre_vect[0] * offset, cy + centre_vect[1] * offset)]
# Get points on arc
for n in range(-1 + angle_start[i], angle_start[i] + int(round(angles[i]))):
x = cx + int(round(r * cos((n) * pi / 180))) + centre_vect[0] * offset
y = cy + int(round(r * sin((n) * pi / 180))) + centre_vect[1] * offset
p.append((x, y))
p.append((cx + centre_vect[0] * offset, cy + centre_vect[1] * offset))
# Draw pie segment
if len(p) > 2 and angles[i] > 0:
pygame.draw.polygon(self.canvas, col, p)
if self.number not in [0, 100]:
pygame.draw.polygon(self.canvas, bd_col, p, 2)
else:
pygame.draw.polygon(self.canvas, bd_col, p[1:-1], 2)
def bezier3x_lines(self, data, canvas, i):
# points = [[beginning], [beginning_midifier], [end], [end_midifier]]
# points = [[200, 400], [300, 250], [450, 500], [500, 475]]
canvas_w = self.layout.game_w
canvas_h = self._step * data[3]
x_center = self.layout.game_w // 2
y_center = self._step * data[3] // 2
bezier = [[[0, 0] for j in range(4)] for j in range(3)]
# line 1 start
bezier[0][0] = Vector2(self.start_positions[i])
bezier[0][1] = Vector2(
random.randrange(self._step, canvas_w - self._step),
random.randrange(self._step * 2, canvas_h -
self._step)) # mod1 #first point modifier
# line 1 end
bezier[0][2] = Vector2(
random.randrange(self._step, canvas_w - self._step),
random.randrange(self._step,
canvas_h - self._step)) # first line end
bezier[0][3] = Vector2(
ex.rand_safe_curve(bezier[0][2], canvas_w, canvas_h))
# line 2 start
bezier[1][0] = bezier[0][2]
bezier[1][1] = bezier[0][2] + Vector2(-(Vector2.from_points(
bezier[0][2], bezier[0][3]))) # 3rd point modifier
# line 2 end
if bezier[0][2][
0] > x_center: # if first point is on the right the second will be on the left
x_range = [self._step, x_center]
else:
x_range = [x_center, canvas_w - self._step]
if bezier[0][2][
1] > y_center: # if first point is on the bottom the second will be on the over the center
y_range = [self._step, y_center]
else:
y_range = [y_center, canvas_h - self._step]
bezier[1][2] = Vector2(random.randrange(*x_range),
random.randrange(*y_range)) # second line end
bezier[1][3] = Vector2(
ex.rand_safe_curve(bezier[1][2], canvas_w, canvas_h))
# line 3 start
bezier[2][0] = bezier[1][2]
bezier[2][1] = bezier[1][2] + Vector2(-(Vector2.from_points(
bezier[1][2], bezier[1][3]))) # 5th point modifier
# line 3 end
bezier[2][2] = Vector2(self.end_positions[i]) # last point
bezier[2][3] = Vector2(
random.randrange(self._step, canvas_w - self._step),
random.randrange(self._step,
self._step * (data[3] - 1))) # 6th point modifier
bezier_points = []
for j in range(3):
bezier_points.extend(ex.DrawBezier(bezier[j]))
# pygame.draw.aalines(canvas, (0, 0, 0), False, bezier_points)
self.ready_lines.append(bezier_points)
def draw_fraction(self):
if self.numbers == [0, 0]:
pass
elif self.numbers == [1, 1]:
#draw circle
r = self.size // 2 - self.size // 10
m = (self.size - r * 2) // 2
cx = m + r
cy = m + r
pygame.draw.circle(self.canvas, self.color1, (cx, cy), r, 0)
pygame.draw.circle(self.canvas, self.border_color1, (cx, cy), r, 1)
else:
r = self.size // 2 - self.size // 10
m = (self.size - r * 2) // 2
if self.numbers[1] < 48:
step = 5
else:
step = 2
angle = 360.0 / self.numbers[1]
angle_start_f = (self.numbers[0] * angle) / 2.0
for i in range(self.numbers[1]):
if i < self.numbers[0] and self.numbers[0] > 0:
col = self.color1
bd_col = self.border_color1
offset = self.offset_selected
else:
col = self.color2
bd_col = self.border_color2
offset = self.offset_unselected
# Center and radius of pie chart
cx = m + r
cy = m + r
#create vector to push the pieces away from the centre towards middle of the arch
centre_vect = Vector2().from_points([cx, cy],
[cx + (r * cos(((angle*(i+1) - angle / 2.0) -
angle_start_f) * pi / 180.0)),
cy + (r * sin(((angle*(i+1) - angle / 2.0) -
angle_start_f) * pi / 180.0))])
centre_vect.normalize()
#first point
p = [(cx + centre_vect[0] * offset, cy + centre_vect[1] * offset)]
# Get points on arc
for n in range(int(round(angle*i)), int(round(angle*(i+1))), step):
x = cx + int(round(r * cos((n-angle_start_f) * pi / 180) + centre_vect[0] * offset))
y = cy + int(round(r * sin((n-angle_start_f) * pi / 180) + centre_vect[1] * offset))
p.append((x, y))
# final point on arc
n = angle * (i + 1)
x = cx + int(round(r * cos((n-angle_start_f) * pi / 180) + centre_vect[0] * offset))
y = cy + int(round(r * sin((n-angle_start_f) * pi / 180) + centre_vect[1] * offset))
p.append((x, y))
# last point - same as the first one
p.append((cx + centre_vect[0] * offset, cy + centre_vect[1] * offset))
# Draw pie segment
if len(p) > 2:
pygame.draw.polygon(self.canvas, col, p)
pygame.draw.polygon(self.canvas, bd_col, p, self.border_width)
