def random_circle_at_origin():
"""
Creates a random circle at the origin
"""
mv_a = random_euc_mv()
mv_r = random_euc_mv()
r = generate_rotation_rotor(np.pi / 2, mv_a, mv_r)
mv_b = r * mv_a * ~r
mv_c = r * mv_b * ~r
pp = (up(mv_a) ^ up(mv_b) ^ up(mv_c)).normal()
return pp
def random_circle_at_origin():
"""
Creates a random circle at the origin
"""
mv_a = random_euc_mv()
mv_r = random_euc_mv()
r = generate_rotation_rotor(np.pi/2, mv_a, mv_r)
mv_b = r*mv_a*~r
mv_c = r * mv_b * ~r
pp = (up(mv_a) ^ up(mv_b) ^ up(mv_c) ).normal()
return pp
def test_generate_rotation_rotor_and_angle(self):
"""
Checks rotation rotor generation
"""
from clifford.tools.g3 import generate_rotation_rotor, random_unit_vector, angle_between_vectors
for i in range(1000):
euc_vector_m = random_unit_vector()
euc_vector_n = random_unit_vector()
theta = angle_between_vectors(euc_vector_m, euc_vector_n)
rot_rotor = generate_rotation_rotor(theta, euc_vector_m, euc_vector_n)
v1 = euc_vector_m
v2 = rot_rotor*euc_vector_m*~rot_rotor
theta_return = angle_between_vectors(v1, v2)
testing.assert_almost_equal(theta_return, theta)
testing.assert_almost_equal(euc_vector_n.value, v2.value)
def test_generate_rotation_rotor_and_angle(self, rng): # noqa: F811
"""
Checks rotation rotor generation
"""
from clifford.tools.g3 import generate_rotation_rotor, random_unit_vector, angle_between_vectors
for i in range(1000):
euc_vector_m = random_unit_vector(rng=rng)
euc_vector_n = random_unit_vector(rng=rng)
theta = angle_between_vectors(euc_vector_m, euc_vector_n)
rot_rotor = generate_rotation_rotor(theta, euc_vector_m,
euc_vector_n)
v1 = euc_vector_m
v2 = rot_rotor * euc_vector_m * ~rot_rotor
theta_return = angle_between_vectors(v1, v2)
testing.assert_almost_equal(theta_return, theta)
testing.assert_almost_equal(euc_vector_n.value, v2.value)
def test_generate_rotation_rotor_and_angle(self):
"""
Checks rotation rotor generation
"""
from clifford.tools.g3 import generate_rotation_rotor, random_unit_vector, angle_between_vectors
euc_vector_m = random_unit_vector()
euc_vector_n = random_unit_vector()
theta = angle_between_vectors(euc_vector_m, euc_vector_n)
print(theta)
rot_rotor = generate_rotation_rotor(theta, euc_vector_m, euc_vector_n)
v1 = euc_vector_m
v2 = rot_rotor * euc_vector_m * ~rot_rotor
theta_return = angle_between_vectors(v1, v2)
print(theta_return)
testing.assert_almost_equal(theta_return, theta)
testing.assert_almost_equal(euc_vector_n.value, v2.value)
