def main():
init()
for frame in range(250):
if frame % 40 == 0:
random_touch()
for step in range(10):
update()
yield nb.mesh_update(mesh, pos=pos.to_numpy().reshape(N**2, 3))
def main():
solver.init()
for frame in range(250):
solver.substep()
marcher.voxelize_particles(solver.x)
pos = marcher.to_voxel_particles()
print(pos)
yield nb.mesh_update(mesh, pos)
def main():
for i in range(500):
print('rendering frame', i)
for s in range(steps):
t = (i + s / steps) * 0.03
bx, bz = ti.cos(t) * 0.7, -ti.sin(t) * 0.7
substep(bx, bz)
yield nb.mesh_update(cloth_mesh, pos.to_numpy()) \
+ nb.object_update(ball_object, location=[bx, 0, bz])
def main():
def T(x):
return np.array([x[:, 0] * 2 - 1, x[:, 2] * 2 - 1,
x[:, 1] * 2]).swapaxes(0, 1)
init()
while True:
for s in range(steps):
substep()
yield nb.mesh_update(mesh, T(x.to_numpy()))
def main():
def T(x):
return np.array([x[:, 0], x[:, 2], x[:, 1]]).swapaxes(0, 1)
init()
yield T(x.to_numpy().reshape(N**2, 3))
while True:
for s in range(steps):
substep()
yield nb.mesh_update(mesh, T(x.to_numpy().reshape(N**2, 3)))
def main():
for frame in range(2500):
yield nb.mesh_update(me, x.to_numpy().reshape(vertex_num, 3))
#s = 1
for step in range(substep_num):
#print('frame:',frame,', substep:',s)
#s += 1
coll_origin[0].x = c_obj.location[0]
coll_origin[0].y = c_obj.location[1]
coll_origin[0].z = c_obj.location[2]
substep()
def main():
init()
for frame in range(250):
update(frame * 0.03)
yield nb.mesh_update(mesh, pos=pos.to_numpy().reshape(N**2, 3))
def main():
init()
while True:
for s in range(6):
substep()
yield nb.mesh_update(mesh, x.to_numpy())
