def __init__(self, c,n,m,d,N):
"""initialize radial solitary wave profile fc(r) using PySolwave Routines
c: wavespeed
n: permeability exponent
m: bulk viscosity exponent
d: wave dimension
N: number of collocation points
"""
# calculate profiles checking for special cases
if m == 1:
if n == 2:
r, f = solwave_con(c, d, N)
else:
r, f = solwave_m1(c,n, d, N)
else:
if n == 3:
r, f = solwave_mck(c, d, N)
else:
r, f = solwave_gen(c, n, m, d, N)
self.r = r
self.f = f
self.finterp = interp1d(r,f, kind='cubic', fill_value=1.0)
def wave_profile(c,n,m,d,N):
""" return 1-D solitary wave profile fc(r) using PySolwave Routines
c: wavespeed
n: permeability exponent
m: bulk viscosity exponent
d: wave dimension
N: number of collocation points
"""
# calculate profiles checking for special cases
if m == 1:
if n == 2:
r, f = solwave_con(c, d, N)
else:
r, f = solwave_m1(c,n, d, N)
else:
if n == 3:
r, f = solwave_mck(c, d, N)
else:
r, f = solwave_gen(c, n, m, d, N)
return r, f
def wave_profile(c, n, m, d, N):
""" return 1-D solitary wave profile fc(r) using PySolwave Routines
c: wavespeed
n: permeability exponent
m: bulk viscosity exponent
d: wave dimension
N: number of collocation points
"""
# calculate profiles checking for special cases
if m == 1:
if n == 2:
r, f = solwave_con(c, d, N)
else:
r, f = solwave_m1(c, n, d, N)
else:
if n == 3:
r, f = solwave_mck(c, d, N)
else:
r, f = solwave_gen(c, n, m, d, N)
return r, f
