def solver_scaled(I, V, f, c, U_0, U_L, L, dt, C, T,
version='vectorized',
stability_safety_factor=1.0):
"""Solve 1D wave equation in dimensionless form."""
action = PlotAndStoreSolution(
'', -1.3, 1.3, # assume properly scaled u
every_frame=1,
filename='tmpdata')
print 'Computing the numerical solution'
cpu, hashed_input = solver_unscaled(
I=I, V=V, f=f, c=c, U_0=U_0, U_L=U_L,
L=1, dt=dt, C=C, T=T,
user_action=action, version=version,
stability_safety_factor=stability_safety_factor)
if cpu > 0:
print 'Computing the numerical solution'
action.close_file(hashed_input)
return filedata
def solver_scaled(I,
V,
f,
c,
U_0,
U_L,
L,
dt,
C,
T,
version='vectorized',
stability_safety_factor=1.0):
"""Solve 1D wave equation in dimensionless form."""
action = PlotAndStoreSolution(
'',
-1.3,
1.3, # assume properly scaled u
every_frame=1,
filename='tmpdata')
print 'Computing the numerical solution'
cpu, hashed_input = solver_unscaled(
I=I,
V=V,
f=f,
c=c,
U_0=U_0,
U_L=U_L,
L=1,
dt=dt,
C=C,
T=T,
user_action=action,
version=version,
stability_safety_factor=stability_safety_factor)
if cpu > 0:
print 'Computing the numerical solution'
action.close_file(hashed_input)
return filedata
def __init__(self, B, S, a, L, B0, A, x0, sigma, **kwargs):
self.B, self.S = B, S # functions for bottom and slide
self.a, self.L, self.B0 = a, L, B0
self.A, self.x0, self.sigma = A, x0, sigma
PlotAndStoreSolution.__init__(self, **kwargs)
def __init__(self, B, S, a, L, B0, A, x0, sigma, **kwargs):
self.B, self.S = B, S # functions for bottom and slide
self.a, self.L, self.B0 = a, L, B0
self.A, self.x0, self.sigma = A, x0, sigma
PlotAndStoreSolution.__init__(self, **kwargs)
