def circle(hl, startcoor, endcoor):
r = math.sqrt(
pow(startcoor[0] - endcoor[0], 2) + pow(startcoor[1] - endcoor[1], 2) +
pow(startcoor[2] - endcoor[2], 2))
theta = math.atan2(
endcoor[2] - startcoor[2],
math.sqrt(
pow(startcoor[0] - endcoor[0], 2) +
pow(startcoor[1] - endcoor[1], 2)))
psi = math.atan2(endcoor[1] - startcoor[1], endcoor[0] - startcoor[0])
for i in range(N + 1):
update_fig(hl, [
r * (np.cos(
(i / N) * 2 * np.pi) * np.cos(theta) * np.cos(psi) - np.sin(
(i / N) * 2 * np.pi) * np.sin(psi)) + startcoor[0], r *
(np.cos(
(i / N) * 2 * np.pi) * np.cos(theta) * np.sin(psi) + np.sin(
(i / N) * 2 * np.pi) * np.cos(psi)) + startcoor[1],
r * np.cos((i / N) * 2 * np.pi) * np.sin(theta) + startcoor[2]
])
return hl
def cube(hl, startcoor, endcoor):
print(hl)
update_fig(hl, startcoor)
update_fig(hl, [startcoor[0], endcoor[1], startcoor[2]])
update_fig(hl, [endcoor[0], endcoor[1], startcoor[2]])
update_fig(hl, [endcoor[0], startcoor[1], startcoor[2]])
update_fig(hl, startcoor)
update_fig(hl, [startcoor[0], startcoor[1], endcoor[2]])
update_fig(hl, [startcoor[0], endcoor[1], endcoor[2]])
update_fig(hl, [startcoor[0], endcoor[1], startcoor[2]])
update_fig(hl, [startcoor[0], endcoor[1], endcoor[2]])
update_fig(hl, [endcoor[0], endcoor[1], endcoor[2]])
update_fig(hl, [endcoor[0], endcoor[1], startcoor[2]])
update_fig(hl, [endcoor[0], endcoor[1], endcoor[2]])
update_fig(hl, [endcoor[0], startcoor[1], endcoor[2]])
update_fig(hl, [endcoor[0], startcoor[1], startcoor[2]])
update_fig(hl, [endcoor[0], startcoor[1], endcoor[2]])
update_fig(hl, [startcoor[0], startcoor[1], endcoor[2]])
return hl
def line(hl, startcoor, endcoor):
update_fig(hl, startcoor)
update_fig(hl, endcoor)
return hl
def colored_rect(hl, startcoor, endcoor):
rect_x = endcoor[0] - startcoor[0]
rect_y = endcoor[1] - startcoor[1]
rect_z = endcoor[2] - startcoor[2]
min(rect_x, rect_y, rect_z)
if ((rect_x < rect_y) and (rect_x < rect_z)):
for i in range(N):
update_fig(hl, [
startcoor[0], ((N - i) / N) * startcoor[1] +
(i / N) * endcoor[1], startcoor[2]
])
update_fig(hl, [
startcoor[0],
((N - i) / N) * startcoor[1] + (i / N) * endcoor[1], endcoor[2]
])
update_fig(hl, [startcoor[0], startcoor[1], endcoor[2]])
update_fig(hl, startcoor)
elif ((rect_y < rect_x) and (rect_y < rect_z)):
for i in range(N):
update_fig(hl, [endcoor[0], startcoor[1], startcoor[2]])
update_fig(hl, [
endcoor[0], startcoor[1],
((N - i) / N) * startcoor[2] + (i / N) * endcoor[2]
])
update_fig(hl, [
startcoor[0], startcoor[1],
((N - i) / N) * startcoor[2] + (i / N) * endcoor[2]
])
update_fig(hl, startcoor)
elif ((rect_z < rect_y) and (rect_z < rect_x)):
for i in range(N):
update_fig(hl, [startcoor[0], endcoor[1], startcoor[2]])
update_fig(hl, [((N - i) / N) * startcoor[0] +
(i / N) * endcoor[0], endcoor[1], startcoor[2]])
update_fig(hl, [((N - i) / N) * startcoor[0] +
(i / N) * endcoor[0], startcoor[1], startcoor[2]])
update_fig(hl, startcoor)
else:
for i in range(N):
update_fig(hl, [startcoor[0], endcoor[1], startcoor[2]])
update_fig(hl, [((N - i) / N) * startcoor[0] +
(i / N) * endcoor[0], endcoor[1], startcoor[2]])
update_fig(hl, [((N - i) / N) * startcoor[0] +
(i / N) * endcoor[0], startcoor[1], startcoor[2]])
update_fig(hl, startcoor)
#print("error!")
return hl
def rect(hl, startcoor, endcoor):
rect_x = endcoor[0] - startcoor[0]
rect_y = endcoor[1] - startcoor[1]
rect_z = endcoor[2] - startcoor[2]
min(rect_x, rect_y, rect_z)
if ((rect_x < rect_y) and (rect_x < rect_z)):
update_fig(hl, [startcoor[0], endcoor[1], startcoor[2]])
update_fig(hl, [startcoor[0], endcoor[1], endcoor[2]])
update_fig(hl, [startcoor[0], startcoor[1], endcoor[2]])
update_fig(hl, startcoor)
elif ((rect_y < rect_x) and (rect_y < rect_z)):
update_fig(hl, [endcoor[0], startcoor[1], startcoor[2]])
update_fig(hl, [endcoor[0], startcoor[1], endcoor[2]])
update_fig(hl, [startcoor[0], startcoor[1], endcoor[2]])
update_fig(hl, startcoor)
elif ((rect_z < rect_y) and (rect_z < rect_x)):
update_fig(hl, [startcoor[0], endcoor[1], startcoor[2]])
update_fig(hl, [endcoor[0], endcoor[1], startcoor[2]])
update_fig(hl, [endcoor[0], startcoor[1], startcoor[2]])
update_fig(hl, startcoor)
else:
update_fig(hl, [startcoor[0], endcoor[1], startcoor[2]])
update_fig(hl, [endcoor[0], endcoor[1], startcoor[2]])
update_fig(hl, [endcoor[0], startcoor[1], startcoor[2]])
update_fig(hl, startcoor)
#print(f"error! rect_x:{rect_x}, rect_y:{rect_y}, rect_z:{rect_z}")
return hl