def test_vector_angle_between():
computed_deg = linalg.vector_angle_between((1, 2, 3), (3, 2, 1), degrees=True)
computed_rad = linalg.vector_angle_between((1, 2, 3), (3, 2, 1), degrees=False)
result_deg = 44.415308597193
result_rad = 0.775193373310361
assert abs(computed_deg - result_deg) < GEOMDL_DELTA
assert abs(computed_rad - result_rad) < GEOMDL_DELTA
def test_vector_angle_between():
computed_deg = linalg.vector_angle_between((1, 2, 3), (3, 2, 1), degrees=True)
computed_rad = linalg.vector_angle_between((1, 2, 3), (3, 2, 1), degrees=False)
result_deg = 44.415308597193
result_rad = 0.775193373310361
assert abs(computed_deg - result_deg) < GEOMDL_DELTA
assert abs(computed_rad - result_rad) < GEOMDL_DELTA
def test_bspline_curve3d_nb_vector(spline_curve3d):
angle = 90.0
b = spline_curve3d.binormal(0.5)
n = spline_curve3d.normal(0.5)
res = linalg.vector_angle_between(b[1], n[1])
assert angle == res
def test_bspline_curve3d_tb_vector(spline_curve3d):
angle = 90.0
t = spline_curve3d.tangent(0.5)
b = spline_curve3d.binormal(0.5)
res = linalg.vector_angle_between(t[1], b[1])
assert angle == res
def test_bspline_curve2d_tn_vector(spline_curve):
angle = 90.0
t = spline_curve.tangent(0.5)
n = spline_curve.normal(0.5)
res = linalg.vector_angle_between(t[1], n[1])
assert angle == res