def fluid_velocity_initial_condition(self):
#return (0.0,)*spatial_dimension
return (0.0, 0.0, 0.0)
def fluid_pressure_initial_condition(self):
return (0.0)
def fluid_pressure_dirichlet_boundaries(self):
return ["GammaFSI"]
def fluid_pressure_dirichlet_values(self):
return [self.P_Fwave]
def fluid_donothing_boundaries(self):
return [LEFTINFLOW, RIGHTINFLOW]
def structure_dirichlet_values(self):
return [(0, 0, 0), (0, 0, 0)]
def structure_dirichlet_boundaries(self):
return [LEFTSTRUC, RIGHTSTRUC]
# Define and solve problem
if __name__ == "__main__":
problem = BloodVessel3D()
solver = FSINewtonSolver(
problem, application_parameters["FSINewtonSolver"].to_dict())
solver.solve()
interactive()
#--- Fluid problem BC---
def fluid_velocity_initial_condition(self):
#return (0.0,)*spatial_dimension
return (0.0, 0.0, 0.0)
def fluid_pressure_initial_condition(self):
return (0.0)
def fluid_pressure_dirichlet_boundaries(self):
return ["GammaFSI"]
def fluid_pressure_dirichlet_values(self):
return [self.P_Fwave]
def fluid_donothing_boundaries(self):
return [LEFTINFLOW,RIGHTINFLOW]
def structure_dirichlet_values(self):
return [(0,0,0),(0,0,0)]
def structure_dirichlet_boundaries(self):
return [LEFTSTRUC,RIGHTSTRUC]
# Define and solve problem
if __name__ == "__main__":
problem = BloodVessel3D()
solver = FSINewtonSolver(problem,application_parameters["FSINewtonSolver"].to_dict())
solver.solve()
interactive()
