def test__div__(self):
x = np.linspace(0, 1, 11)
x = fields.Domain(x)
name = ['q', 'q0', 'q1']
q1 = fields.VectorField1D(2, name, x)
q2 = fields.VectorField1D(2, name, x)
data1 = np.ones(q1.val.shape)
data1[1, :] *= 2
q1.set_field(data1)
data2 = np.ones(q2.val.shape)
data2[0, :] *= 3
data2[1, :] *= 4
q2.set_field(data2)
q3 = q1 / q2
q4 = q1 / 2
assert q3 is not q1
assert q3 is not q2
assert np.all(q3.val == q1.val / q2.val)
assert np.all(q4.val == q1.val / 2)
return
def test__eq__(self):
x = np.linspace(0, 1, 11)
y = fields.Domain(x)
x = fields.Domain(x)
name = ['q', 'q0', 'q1']
q0 = fields.VectorField1D(2, name, x)
q1 = fields.VectorField1D(2, name, x)
q2 = fields.VectorField1D(2, name, y)
assert (q0 == q0)
assert (q0 != 0)
assert (q0 == q1)
assert (q0 != q2)
q2 = q0.copy()
data1 = np.ones(q1.val.shape)
data1[1, :] *= 2
q0.set_field(data1)
q1.set_field(data1)
data2 = np.ones(q2.val.shape)
data2[0, :] *= 3
data2[1, :] *= 4
q2.set_field(data2)
assert (q0 == q1)
assert (q0 != q2)
q2 = q0.copy()
bc0 = general.fields.BoundaryCondition(name='periodic')
bc1 = general.fields.BoundaryCondition(name='neumann', indx=0, val=0)
assert (bc0 != bc1)
q0.add_boundary_condition(0, bc0)
q1.add_boundary_condition(0, bc0)
q2.add_boundary_condition(0, bc1)
assert (q0 == q1)
assert (q0 != q2)
q2 = q0.copy()
q2.add_boundary_condition(1, bc0)
assert (q0 != q2)
return
def test_copy(self):
x = np.linspace(0, 1, 11)
x = fields.Domain(x)
name = ['q', 'q0', 'q1']
q = fields.VectorField1D(2, name, x)
bc0 = general.fields.BoundaryCondition(name='periodic')
bc1 = general.fields.BoundaryCondition(name='periodic')
q.add_boundary_condition(0, bc0)
q.add_boundary_condition(1, bc1)
q2 = q.copy()
assert q2 is not q
assert q2.n == q.n
assert q2.name == q.name
assert q2.mesh == q.mesh
for i in range(q2.n):
assert q2.q[i] is not q.q[i]
assert q2.q[i] == q.q[i]
return
def test__getitem__(self):
x = np.linspace(0, 1, 11)
x = fields.Domain(x)
name = ['q', 'q0', 'q1']
q = fields.VectorField1D(2, name, x)
assert q[0] is q.q[0]
assert q[1] is q.q[1]
return
def test_add_boundary_condition(self):
x = np.linspace(0, 1, 11)
x = fields.Domain(x)
name = ['q', 'q0', 'q1']
q = fields.VectorField1D(2, name, x)
bc0 = general.fields.BoundaryCondition(name='periodic')
bc1 = general.fields.BoundaryCondition(name='periodic')
q.add_boundary_condition(0, bc0)
assert bc0 in q.q[0].bconds
q.add_boundary_condition('q1', bc1)
assert bc1 in q.q[1].bconds
pass
def test_set_field(self):
x = np.linspace(0, 1, 11)
x = fields.Domain(x)
name = ['q', 'q0', 'q1']
q = fields.VectorField1D(2, name, x)
assert np.all(q.val == 0)
data = np.ones(q.val.shape)
data[1, :] *= 2
q.set_field(data)
assert np.all(q.val == data)
assert np.all(q.q[0][:] == data[0, :])
assert np.all(q.q[1][:] == data[1, :])
return
def test_init(self):
x = np.linspace(0, 1, 11)
x = fields.Domain(x)
name = ['q', 'q0', 'q1']
q = fields.VectorField1D(2, name, x)
assert q.n == 2
assert q.mesh is x
assert q.name == 'q'
assert q.names == name
assert len(q.q) == 2
assert q.val.shape == (2, len(x.xp))
for i, qi in enumerate(q.q):
assert qi.name == name[i + 1]
assert qi.mesh is x
assert len(qi.val) == len(x.xp)
return
