def setUp(self):
""" The setup consists of two fluid particle arrays, each
having one particle. The fluids are acted upon by an external
vector force and gravity.
Comparison is made with the PySPH integration of the system.
"""
x1 = numpy.array([-0.5])
y1 = numpy.array([1.0])
x2 = numpy.array([0.5])
y2 = numpy.array([1.0])
tmpx1 = numpy.ones_like(x1)
tmpx2 = numpy.ones_like(x2)
self.f1 = base.get_particle_array(name="fluid1", x=x1, y=y1, tmpx=tmpx1)
self.f2 = base.get_particle_array(name="fluid2", x=x2, y=y2, tmpx=tmpx2)
self.particles = base.Particles(arrays=[self.f1, self.f2])
self.kernel = kernel = base.CubicSplineKernel(dim=2)
gravity = solver.SPHIntegration(
sph.GravityForce.withargs(gy=-10.0), on_types=[Fluid], updates=["u", "v"], id="gravity"
)
force = solver.SPHIntegration(
sph.GravityForce.withargs(gx=-10.0), on_types=[Fluid], updates=["u", "v"], id="force"
)
position = solver.SPHIntegration(sph.PositionStepping, on_types=[Fluid], updates=["x", "y"], id="step")
gravity.calc_type = sph.CLCalc
force.calc_type = sph.CLCalc
position.calc_type = sph.CLCalc
gravity_calcs = gravity.get_calcs(self.particles, kernel)
force_calcs = force.get_calcs(self.particles, kernel)
position_calcs = position.get_calcs(self.particles, kernel)
self.calcs = calcs = []
calcs.extend(gravity_calcs)
calcs.extend(force_calcs)
calcs.extend(position_calcs)
self.integrator = CLIntegrator(self.particles, calcs)
self.ctx = ctx = cl.create_some_context()
self.integrator.setup_integrator(ctx)
self.queue = calcs[0].queue
self.dt = 0.1
self.nsteps = 10
def setUp(self):
""" The setup consists of two fluid particle arrays, each
having one particle. The fluids are acted upon by an external
vector force and gravity.
Comparison is made with the PySPH integration of the system.
"""
x1 = numpy.array([-0.5,])
y1 = numpy.array([1.0, ])
x2 = numpy.array([0.5,])
y2 = numpy.array([1.0,])
self.f1 = base.get_particle_array(name="fluid1", x=x1, y=y1)
self.f2 = base.get_particle_array(name="fluid2", x=x2, y=y2)
self.particles = base.CLParticles(
arrays=[self.f1,self.f2],
domain_manager_type=CLDomain.DomainManager,
cl_locator_type=CLLocator.AllPairNeighborLocator
)
self.kernel = kernel = base.CubicSplineKernel(dim=2)
gravity = solver.SPHIntegration(
sph.GravityForce.withargs(gy=-10.0), on_types=[Fluid],
updates=['u','v'], id='gravity'
)
force = solver.SPHIntegration(
sph.GravityForce.withargs(gx = -10.0), on_types=[Fluid],
updates=['u','v'], id='force'
)
position = solver.SPHIntegration(
sph.PositionStepping, on_types=[Fluid],
updates=['x','y'], id='step',
)
gravity.calc_type = sph.CLCalc
force.calc_type = sph.CLCalc
position.calc_type = sph.CLCalc
gravity_calcs = gravity.get_calcs(self.particles, kernel)
force_calcs = force.get_calcs(self.particles, kernel)
position_calcs = position.get_calcs(self.particles, kernel)
self.calcs = calcs = []
calcs.extend(gravity_calcs)
calcs.extend(force_calcs)
calcs.extend(position_calcs)
self.integrator = CLIntegrator(self.particles, calcs)
self.ctx = ctx = solver.create_some_context()
self.queue = calcs[0].queue
self.dt = 0.1
self.nsteps = 10
class CLIntegratorTestCase(unittest.TestCase):
""" Test the CLEulerIntegrator """
def setUp(self):
""" The setup consists of two fluid particle arrays, each
having one particle. The fluids are acted upon by an external
vector force and gravity.
Comparison is made with the PySPH integration of the system.
"""
x1 = numpy.array([-0.5,])
y1 = numpy.array([1.0, ])
x2 = numpy.array([0.5,])
y2 = numpy.array([1.0,])
self.f1 = base.get_particle_array(name="fluid1", x=x1, y=y1)
self.f2 = base.get_particle_array(name="fluid2", x=x2, y=y2)
self.particles = base.CLParticles(
arrays=[self.f1,self.f2],
domain_manager_type=CLDomain.DomainManager,
cl_locator_type=CLLocator.AllPairNeighborLocator
)
self.kernel = kernel = base.CubicSplineKernel(dim=2)
gravity = solver.SPHIntegration(
sph.GravityForce.withargs(gy=-10.0), on_types=[Fluid],
updates=['u','v'], id='gravity'
)
force = solver.SPHIntegration(
sph.GravityForce.withargs(gx = -10.0), on_types=[Fluid],
updates=['u','v'], id='force'
)
position = solver.SPHIntegration(
sph.PositionStepping, on_types=[Fluid],
updates=['x','y'], id='step',
)
gravity.calc_type = sph.CLCalc
force.calc_type = sph.CLCalc
position.calc_type = sph.CLCalc
gravity_calcs = gravity.get_calcs(self.particles, kernel)
force_calcs = force.get_calcs(self.particles, kernel)
position_calcs = position.get_calcs(self.particles, kernel)
self.calcs = calcs = []
calcs.extend(gravity_calcs)
calcs.extend(force_calcs)
calcs.extend(position_calcs)
self.integrator = CLIntegrator(self.particles, calcs)
self.ctx = ctx = solver.create_some_context()
self.queue = calcs[0].queue
self.dt = 0.1
self.nsteps = 10
def test_setup_integrator(self):
""" Test the construction of the integrator """
integrator = self.integrator
self.integrator.setup_integrator(self.ctx)
calcs = integrator.calcs
self.assertEqual( len(calcs), 6 )
for calc in calcs:
self.assertTrue( isinstance(calc, sph.CLCalc) )
# check that setup_cl has been called for the arrays
self.assertTrue(self.f1.cl_setup_done)
self.assertTrue(self.f2.cl_setup_done)
# check for the additional properties created by the integrator
for arr in [self.f1, self.f2]:
# Initial props
self.assertTrue( arr.properties.has_key('_x0') )
self.assertTrue( arr.properties.has_key('_y0') )
self.assertTrue( arr.properties.has_key('_u0') )
self.assertTrue( arr.properties.has_key('_v0') )
self.assertTrue( arr.cl_properties.has_key('cl__x0') )
self.assertTrue( arr.cl_properties.has_key('cl__y0') )
self.assertTrue( arr.cl_properties.has_key('cl__u0') )
self.assertTrue( arr.cl_properties.has_key('cl__v0') )
# check for the k1 step props
arr = self.f1
self.assertTrue( arr.properties.has_key('_a_x_1') )
self.assertTrue( arr.properties.has_key('_a_y_1') )
self.assertTrue( arr.properties.has_key('_a_u_1') )
self.assertTrue( arr.properties.has_key('_a_v_1') )
self.assertTrue( arr.cl_properties.has_key('cl__a_x_1') )
self.assertTrue( arr.cl_properties.has_key('cl__a_y_1') )
self.assertTrue( arr.cl_properties.has_key('cl__a_u_1') )
self.assertTrue( arr.cl_properties.has_key('cl__a_v_1') )
def setUp(self):
""" The setup consists of two fluid particle arrays, each
having one particle. The fluids are acted upon by an external
vector force and gravity.
Comparison is made with the PySPH integration of the system.
"""
x1 = numpy.array([
-0.5,
])
y1 = numpy.array([
1.0,
])
x2 = numpy.array([
0.5,
])
y2 = numpy.array([
1.0,
])
tmpx1 = numpy.ones_like(x1)
tmpx2 = numpy.ones_like(x2)
self.f1 = base.get_particle_array(name="fluid1",
x=x1,
y=y1,
tmpx=tmpx1)
self.f2 = base.get_particle_array(name="fluid2",
x=x2,
y=y2,
tmpx=tmpx2)
self.particles = base.Particles(arrays=[self.f1, self.f2])
self.kernel = kernel = base.CubicSplineKernel(dim=2)
gravity = solver.SPHIntegration(sph.GravityForce.withargs(gy=-10.0),
on_types=[Fluid],
updates=['u', 'v'],
id='gravity')
force = solver.SPHIntegration(sph.GravityForce.withargs(gx=-10.0),
on_types=[Fluid],
updates=['u', 'v'],
id='force')
position = solver.SPHIntegration(
sph.PositionStepping,
on_types=[Fluid],
updates=['x', 'y'],
id='step',
)
gravity.calc_type = sph.CLCalc
force.calc_type = sph.CLCalc
position.calc_type = sph.CLCalc
gravity_calcs = gravity.get_calcs(self.particles, kernel)
force_calcs = force.get_calcs(self.particles, kernel)
position_calcs = position.get_calcs(self.particles, kernel)
self.calcs = calcs = []
calcs.extend(gravity_calcs)
calcs.extend(force_calcs)
calcs.extend(position_calcs)
self.integrator = CLIntegrator(self.particles, calcs)
self.ctx = ctx = cl.create_some_context()
self.integrator.setup_integrator(ctx)
self.queue = calcs[0].queue
self.dt = 0.1
self.nsteps = 10
class CLIntegratorTestCase(unittest.TestCase):
""" Test the CLEulerIntegrator """
def runTest(self):
pass
def setUp(self):
""" The setup consists of two fluid particle arrays, each
having one particle. The fluids are acted upon by an external
vector force and gravity.
Comparison is made with the PySPH integration of the system.
"""
x1 = numpy.array([
-0.5,
])
y1 = numpy.array([
1.0,
])
x2 = numpy.array([
0.5,
])
y2 = numpy.array([
1.0,
])
tmpx1 = numpy.ones_like(x1)
tmpx2 = numpy.ones_like(x2)
self.f1 = base.get_particle_array(name="fluid1",
x=x1,
y=y1,
tmpx=tmpx1)
self.f2 = base.get_particle_array(name="fluid2",
x=x2,
y=y2,
tmpx=tmpx2)
self.particles = base.Particles(arrays=[self.f1, self.f2])
self.kernel = kernel = base.CubicSplineKernel(dim=2)
gravity = solver.SPHIntegration(sph.GravityForce.withargs(gy=-10.0),
on_types=[Fluid],
updates=['u', 'v'],
id='gravity')
force = solver.SPHIntegration(sph.GravityForce.withargs(gx=-10.0),
on_types=[Fluid],
updates=['u', 'v'],
id='force')
position = solver.SPHIntegration(
sph.PositionStepping,
on_types=[Fluid],
updates=['x', 'y'],
id='step',
)
gravity.calc_type = sph.CLCalc
force.calc_type = sph.CLCalc
position.calc_type = sph.CLCalc
gravity_calcs = gravity.get_calcs(self.particles, kernel)
force_calcs = force.get_calcs(self.particles, kernel)
position_calcs = position.get_calcs(self.particles, kernel)
self.calcs = calcs = []
calcs.extend(gravity_calcs)
calcs.extend(force_calcs)
calcs.extend(position_calcs)
self.integrator = CLIntegrator(self.particles, calcs)
self.ctx = ctx = cl.create_some_context()
self.integrator.setup_integrator(ctx)
self.queue = calcs[0].queue
self.dt = 0.1
self.nsteps = 10
def test_setup_integrator(self):
""" Test the construction of the integrator """
integrator = self.integrator
calcs = integrator.calcs
self.assertEqual(len(calcs), 6)
for calc in calcs:
self.assertTrue(isinstance(calc, sph.CLCalc))
# check that setup_cl has been called for the arrays
self.assertTrue(self.f1.cl_setup_done)
self.assertTrue(self.f2.cl_setup_done)
# check for the additional properties created by the integrator
for arr in [self.f1, self.f2]:
# Initial props
self.assertTrue(arr.properties.has_key('_x_0'))
self.assertTrue(arr.properties.has_key('_y_0'))
self.assertTrue(arr.properties.has_key('_u_0'))
self.assertTrue(arr.properties.has_key('_v_0'))
self.assertTrue(arr.cl_properties.has_key('cl__x_0'))
self.assertTrue(arr.cl_properties.has_key('cl__y_0'))
self.assertTrue(arr.cl_properties.has_key('cl__u_0'))
self.assertTrue(arr.cl_properties.has_key('cl__v_0'))
# check for the k1 step props
arr = self.f1
self.assertTrue(arr.properties.has_key('_k1_u00'))
self.assertTrue(arr.properties.has_key('_k1_v01'))
self.assertTrue(arr.properties.has_key('_k1_u20'))
self.assertTrue(arr.properties.has_key('_k1_v21'))
self.assertTrue(arr.properties.has_key('_k1_x40'))
self.assertTrue(arr.properties.has_key('_k1_y41'))
self.assertTrue(arr.cl_properties.has_key('cl__k1_u00'))
self.assertTrue(arr.cl_properties.has_key('cl__k1_v01'))
self.assertTrue(arr.cl_properties.has_key('cl__k1_u20'))
self.assertTrue(arr.cl_properties.has_key('cl__k1_v21'))
self.assertTrue(arr.cl_properties.has_key('cl__k1_x40'))
self.assertTrue(arr.cl_properties.has_key('cl__k1_y41'))
class CLIntegratorTestCase(unittest.TestCase):
""" Test the CLEulerIntegrator """
def runTest(self):
pass
def setUp(self):
""" The setup consists of two fluid particle arrays, each
having one particle. The fluids are acted upon by an external
vector force and gravity.
Comparison is made with the PySPH integration of the system.
"""
x1 = numpy.array([-0.5])
y1 = numpy.array([1.0])
x2 = numpy.array([0.5])
y2 = numpy.array([1.0])
tmpx1 = numpy.ones_like(x1)
tmpx2 = numpy.ones_like(x2)
self.f1 = base.get_particle_array(name="fluid1", x=x1, y=y1, tmpx=tmpx1)
self.f2 = base.get_particle_array(name="fluid2", x=x2, y=y2, tmpx=tmpx2)
self.particles = base.Particles(arrays=[self.f1, self.f2])
self.kernel = kernel = base.CubicSplineKernel(dim=2)
gravity = solver.SPHIntegration(
sph.GravityForce.withargs(gy=-10.0), on_types=[Fluid], updates=["u", "v"], id="gravity"
)
force = solver.SPHIntegration(
sph.GravityForce.withargs(gx=-10.0), on_types=[Fluid], updates=["u", "v"], id="force"
)
position = solver.SPHIntegration(sph.PositionStepping, on_types=[Fluid], updates=["x", "y"], id="step")
gravity.calc_type = sph.CLCalc
force.calc_type = sph.CLCalc
position.calc_type = sph.CLCalc
gravity_calcs = gravity.get_calcs(self.particles, kernel)
force_calcs = force.get_calcs(self.particles, kernel)
position_calcs = position.get_calcs(self.particles, kernel)
self.calcs = calcs = []
calcs.extend(gravity_calcs)
calcs.extend(force_calcs)
calcs.extend(position_calcs)
self.integrator = CLIntegrator(self.particles, calcs)
self.ctx = ctx = cl.create_some_context()
self.integrator.setup_integrator(ctx)
self.queue = calcs[0].queue
self.dt = 0.1
self.nsteps = 10
def test_setup_integrator(self):
""" Test the construction of the integrator """
integrator = self.integrator
calcs = integrator.calcs
self.assertEqual(len(calcs), 6)
for calc in calcs:
self.assertTrue(isinstance(calc, sph.CLCalc))
# check that setup_cl has been called for the arrays
self.assertTrue(self.f1.cl_setup_done)
self.assertTrue(self.f2.cl_setup_done)
# check for the additional properties created by the integrator
for arr in [self.f1, self.f2]:
# Initial props
self.assertTrue(arr.properties.has_key("_x_0"))
self.assertTrue(arr.properties.has_key("_y_0"))
self.assertTrue(arr.properties.has_key("_u_0"))
self.assertTrue(arr.properties.has_key("_v_0"))
self.assertTrue(arr.cl_properties.has_key("cl__x_0"))
self.assertTrue(arr.cl_properties.has_key("cl__y_0"))
self.assertTrue(arr.cl_properties.has_key("cl__u_0"))
self.assertTrue(arr.cl_properties.has_key("cl__v_0"))
# check for the k1 step props
arr = self.f1
self.assertTrue(arr.properties.has_key("_k1_u00"))
self.assertTrue(arr.properties.has_key("_k1_v01"))
self.assertTrue(arr.properties.has_key("_k1_u20"))
self.assertTrue(arr.properties.has_key("_k1_v21"))
self.assertTrue(arr.properties.has_key("_k1_x40"))
self.assertTrue(arr.properties.has_key("_k1_y41"))
self.assertTrue(arr.cl_properties.has_key("cl__k1_u00"))
self.assertTrue(arr.cl_properties.has_key("cl__k1_v01"))
self.assertTrue(arr.cl_properties.has_key("cl__k1_u20"))
self.assertTrue(arr.cl_properties.has_key("cl__k1_v21"))
self.assertTrue(arr.cl_properties.has_key("cl__k1_x40"))
self.assertTrue(arr.cl_properties.has_key("cl__k1_y41"))
