def test_gp_Quaternion(self):
'''
Test Interpolate method of qp_QuaternionSLerp.
This method takes a by ref parameter q.
'''
vX = gp_Vec(12, 0, 0)
vY = gp_Vec(0, 12, 0)
v45 = (gp_Vec(1, 1, 1).Normalized() * 12)
q = gp_Quaternion()
q1 = gp_Quaternion(vX, vX)
q2 = gp_Quaternion(vX, vY)
interp = gp_QuaternionSLerp(q1, q2)
interp.Init(q1, q2)
for i in range(10):
i__ = i / 10.
interp.Interpolate(i__, q)
if i == 0:
self.assertEqual(q.X(), 0.)
self.assertEqual(q.Y(), 0.)
self.assertEqual(q.Z(), 0.)
self.assertEqual(q.W(), 1.)
else:
self.assertEqual(q.X(), 0.)
self.assertEqual(q.Y(), 0.)
assert q.Z() > 0.
assert q.W() < 1.
def test_gp_Quaternion(self):
'''
Test Interpolate method of qp_QuaternionSLerp.
This method takes a by ref parameter q.
'''
vX = gp_Vec(12, 0, 0)
vY = gp_Vec(0, 12, 0)
v45 = (gp_Vec(1, 1, 1).Normalized() * 12)
q = gp_Quaternion()
q1 = gp_Quaternion(vX, vX)
q2 = gp_Quaternion(vX, vY)
interp = gp_QuaternionSLerp(q1, q2)
interp.Init(q1, q2)
for i in range(10):
i__ = i / 10.
interp.Interpolate(i__, q)
if i == 0:
self.assertEqual(q.X(), 0.)
self.assertEqual(q.Y(), 0.)
self.assertEqual(q.Z(), 0.)
self.assertEqual(q.W(), 1.)
else:
self.assertEqual(q.X(), 0.)
self.assertEqual(q.Y(), 0.)
assert q.Z() > 0.
assert q.W() < 1.
def interpolate(event=None):
display.EraseAll()
origin = gp_Vec()
vX = gp_Vec(12, 0, 0)
vY = gp_Vec(0, 12, 0)
v45 = (gp_Vec(1, 1, 1).Normalized() * 12)
q = gp_Quaternion()
interp = gp_QuaternionSLerp(gp_Quaternion(vX, vX), gp_Quaternion(vX, vY))
for i in frange(0, 1.0, 0.01):
interp.Interpolate(i, q)
# displace the white edges a little from the origin so not to obstruct the other edges
v = gp_Vec(0, -24*i, 0)
q_v_ = q * v45
p = gp_Pnt((q_v_ + v).XYZ())
v__as_pnt = gp_Pnt((origin + v).XYZ())
e = make_edge(v__as_pnt, p)
display.DisplayColoredShape(e, 'WHITE')
msg = 'v45->q1*v45 @{0}'.format(i / 10.)
#display.DisplayMessage(p, msg)
display.FitAll()
def interpolate(event=None):
display.EraseAll()
origin = gp_Vec()
vX = gp_Vec(12, 0, 0)
vY = gp_Vec(0, 12, 0)
v45 = (gp_Vec(1, 1, 1).Normalized() * 12)
q = gp_Quaternion()
interp = gp_QuaternionSLerp(gp_Quaternion(vX, vX), gp_Quaternion(vX, vY))
for i in frange(0, 1.0, 0.01):
interp.Interpolate(i, q)
# displace the white edges a little from the origin so not to obstruct the other edges
v = gp_Vec(0, -24 * i, 0)
q_v_ = q * v45
p = gp_Pnt((q_v_ + v).XYZ())
v__as_pnt = gp_Pnt((origin + v).XYZ())
e = make_edge(v__as_pnt, p)
display.DisplayColoredShape(e, 'WHITE')
msg = 'v45->q1*v45 @{0}'.format(i / 10.)
display.DisplayMessage(p, msg)
display.FitAll()