Renamed c_codes -> c_library
Per.Andreas.Brodtkorb
10 years ago
parent
2a0efa5ea3
commit
1d006de413
@ -1,98 +0,0 @@
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"""
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f2py c_library.pyf c_functions.c -c
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See also http://www.scipy.org/Cookbook/CompilingExtensionsOnWindowsWithMinGW
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"""
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import os
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import sys
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def which(program):
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"""
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Test if program exists
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======================
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In order to test if a certain executable exists, it will search for the
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program name in the environment variables.
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If program is a full path to an executable, it will check it exists
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Copied from:
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http://stackoverflow.com/questions/377017/test-if-executable-exists-in-python/
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It is supposed to mimic the UNIX command "which"
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"""
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def is_exe(fpath):
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return os.path.exists(fpath) and os.access(fpath, os.X_OK)
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fpath, unused_fname = os.path.split(program)
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if fpath:
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if is_exe(program):
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return program
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else:
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for path in os.environ["PATH"].split(os.pathsep):
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exe_file = os.path.join(path, program)
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if is_exe(exe_file):
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return exe_file
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return None
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def f2py_call_str():
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# regardless of platform, try to figure out which f2py call is in the path
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# define possible options
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# on Arch Linux, python and f2py are the calls corresponding to python 3
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# and python2/f2py2 for python 2
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# other Linux versions might still use python/f2py for python 2
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if os.path.basename(sys.executable).endswith('2'):
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for k in ('f2py2','f2py2.6','f2py2.7',):
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# if we found the f2py path, no need to look further
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if which(k):
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f2py_call = k
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f2py_path = which(k)
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break
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# on Windows and other Linux using python/f2py
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else:
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for k in ('f2py','f2py2.6','f2py2.7','f2py.py',):
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# if we found the f2py path, no need to look further
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if which(k):
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f2py_call = k
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f2py_path = which(k)
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break
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try:
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print 'found f2py in:', f2py_path
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return f2py_call
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# raise exception if f2py is not found, f2py_path variable will not exist
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except NameError:
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raise UserWarning, \
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'Couldn\'t locate f2py. Should be part of NumPy installation.'
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# # this might vary among specific cases: f2py, f2py2.7, f2py3.2, ...
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# # TODO: more robust approach, find out what f2py is in the users path
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# if os.name == 'posix':
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# compile_format = 'f2py2.6 %s %s -c'
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#
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# # Install microsoft visual c++ .NET 2003 and run the following to build the module:
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# elif os.name == 'nt':
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# # compile_format = 'f2py.py %s %s -c --fcompiler=gnu95 --compiler=mingw32 -lmsvcr71'
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# compile_format = 'f2py.py %s %s -c'
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#
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# # give an Error for other OS-es
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# else:
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# raise UserWarning, \
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# 'Untested platform:', os.name
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def compile_all():
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f2py_call = f2py_call_str()
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print '='*75
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print 'compiling c_codes'
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print '='*75
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compile_format = f2py_call + ' %s %s -c'
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pyfs = ('c_library.pyf',)
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files =('c_functions.c',)
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for pyf,file in zip(pyfs,files):
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os.system(compile_format % (pyf,file))
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if __name__=='__main__':
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compile_all()
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@ -1,16 +0,0 @@
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import os
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def compile_all():
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# Install gfortran and run the following to build the module:
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#compile_format = 'f2py %s %s -c --fcompiler=gnu95 --compiler=mingw32 -lmsvcr71'
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# Install microsoft visual c++ .NET 2003 and run the following to build the module:
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compile_format = 'f2py %s %s -c'
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pyfs = ('rfc.pyf','diffsumfunq.pyf')
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files =('findrfc.c','disufq1.c')
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for pyf,file in zip(pyfs,files):
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os.system(compile_format % (pyf,file))
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if __name__=='__main__':
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compile_all()
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Binary file not shown.
@ -1,30 +0,0 @@
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! File diffsumfunq.pyf
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python module diffsumfunq
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interface
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subroutine disufq(rvec, ivec, rA, iA, w, kw, h, g,nmin,nmax, m, n)
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intent(c) disufq ! disufq is a C function
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intent(c) ! all disufq arguments are considered as C based
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!integer intent(hide), depend(rA),check(n*m==len(iA)) :: n=len(rA)/m
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!integer intent(hide), depend(rA), check(m==shape(iA,1)) :: m=shape(rA,1)
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double precision dimension(n*m), intent(in) :: rA, iA ! input array
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double precision dimension(n/2+1), intent(in) :: w, kw ! input array
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double precision intent(in) :: h, g
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integer intent(in) :: nmin, nmax
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double precision dimension(n*m), intent(out) :: rvec, ivec ! output array,
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end subroutine disufq
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subroutine disufq2(rsvec, isvec,rdvec, idvec, rA, iA, w, kw, h, g,nmin,nmax, m, n)
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intent(c) disufq2 ! disufq2 is a C function
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intent(c) ! all disufq2 arguments are considered as C based
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!integer intent(hide), depend(rA),check(n*m==len(iA)) :: n=len(rA)/m
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!integer intent(hide), depend(rA), check(m==shape(iA,1)) :: m=shape(rA,1)
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double precision dimension(n*m), intent(in) :: rA, iA ! input array
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double precision dimension(n/2+1), intent(in) :: w, kw ! input array
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double precision intent(in) :: h, g
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integer intent(in) :: nmin, nmax
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double precision dimension(n*m), intent(out) :: rsvec, isvec, rdvec, idvec ! output array,
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end subroutine disufq
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end interface
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end python module diffsumfunq
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@ -1,30 +0,0 @@
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! File diffsumfunq.pyf
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python module diffsumfunq
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interface
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subroutine disufq(rvec, ivec, rA, iA, w, kw, h, g,nmin,nmax, m, n)
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intent(c) disufq ! disufq is a C function
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intent(c) ! all disufq arguments are considered as C based
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integer intent(hide), depend(rA),check(n==shape(iA,0)) :: n=shape(rA,0)
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integer intent(hide), depend(rA), check(m==shape(iA,1)) :: m=shape(rA,1)
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double precision dimension(n,m), intent(in) :: rA, iA ! input array
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double precision dimension(n), intent(in) :: w, kw ! input array
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double precision intent(in) :: h, g
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integer intent(in) :: nmin, nmax
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double precision dimension(n,m), intent(out) :: rvec, ivec ! output array,
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end subroutine disufq
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subroutine disufq2(rsvec, isvec,rdvec, idvec, rA, iA, w, kw, h, g,nmin,nmax, m, n)
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intent(c) disufq2 ! disufq2 is a C function
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intent(c) ! all disufq2 arguments are considered as C based
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integer intent(hide), depend(rA),check(n==shape(iA,0)) :: n=shape(rA,0)
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integer intent(hide), depend(rA), check(m==shape(iA,1)) :: m=shape(rA,1)
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double precision dimension(n,m), intent(in) :: rA, iA ! input array
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double precision dimension(n), intent(in) :: w, kw ! input array
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double precision intent(in) :: h, g
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integer intent(in) :: nmin, nmax
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double precision dimension(n,m), intent(out) :: rsvec, isvec, rdvec, idvec ! output array,
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end subroutine disufq
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end interface
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end python module diffsumfunq
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@ -1,446 +0,0 @@
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#include "math.h"
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/*
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* DISUFQ Is an internal function to spec2nlsdat
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*
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* CALL: disufq(rvec,ivec,rA,iA, w,kw,h,g,nmin,nmax,m,n)
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*
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* rvec, ivec = real and imaginary parts of the resultant (size m X n).
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* rA, iA = real and imaginary parts of the amplitudes (size m X n).
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* w = vector with angular frequencies (w>=0)
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* kw = vector with wavenumbers (kw>=0)
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* h = water depth (h >=0)
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* g = constant acceleration of gravity
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* nmin = minimum index where rA(:,nmin) and iA(:,nmin) is
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* greater than zero.
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* nmax = maximum index where rA(:,nmax) and iA(:,nmax) is
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* greater than zero.
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* m = size(rA,1),size(iA,1)
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* n = size(rA,2),size(iA,2), or size(rvec,2),size(ivec,2)
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*
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* DISUFQ returns the summation of difference frequency and sum
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* frequency effects in the vector vec = rvec +sqrt(-1)*ivec.
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* The 2'nd order contribution to the Stokes wave is then calculated by
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* a simple 1D Fourier transform, real(FFT(vec)).
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*
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* Install gfortran and run the following to build the module:
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* f2py diffsumfunq.pyf disufq1.c -c --fcompiler=gnu95 --compiler=mingw32 -lmsvcr71
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*
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* by Per Andreas Brodtkorb 15.08.2001
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* revised pab 14.03.2002, 01.05.2002 22.07.2002, oct 2008
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*/
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void disufq(double *rvec, double *ivec,
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double *rA, double *iA,
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double *w, double *kw,
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double h, double g,
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int nmin, int nmax,
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int m, int n)
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{
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double Epij, Edij;
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double tmp1, tmp2, tmp3, tmp4, kfact;
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double w1, w2, kw1, kw2, Cg;
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double rrA, iiA, riA, irA;
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int i,jy,ix,iz1,iv1,ixi,jyi;
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//int iz2, iv2;
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//Initialize rvec and ivec to zero
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for (ix=0;ix<n*m;ix++) {
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rvec[ix] = 0.0;
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ivec[ix] = 0.0;
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}
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// kfact is set to 2 in order to exploit the symmetry.
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// If you set kfact to 1, you must uncomment all statements
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// including the expressions: rvec[iz2], rvec[iv2], ivec[iz2] and ivec[iv2].
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kfact = 2.0;
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if (h>10000){ /* deep water /Inifinite water depth */
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for (ix = nmin-1;ix<nmax;ix++) {
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ixi = ix*m;
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iz1 = 2*ixi;
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//iz2 = n*m-ixi;
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kw1 = kw[ix];
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Epij = kw1;
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for (i=0;i<m;i++,ixi++,iz1++) {
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rrA = rA[ixi]*rA[ixi]; ///
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iiA = iA[ixi]*iA[ixi]; ///
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riA = rA[ixi]*iA[ixi]; ///
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/// Sum frequency effects along the diagonal
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tmp1 = kfact*(rrA-iiA)*Epij;
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tmp2 = kfact*2.0*riA*Epij;
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rvec[iz1] += tmp1;
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ivec[iz1] += tmp2;
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//rvec[iz2] += tmp1;
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//ivec[iz2] -= tmp2;
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//iz2++;
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/// Difference frequency effects are zero along the diagonal
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/// and are thus not contributing to the mean.
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}
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for (jy = ix+1;jy<nmax;jy++){
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kw2 = kw[jy];
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Epij = 0.5*(kw2 + kw1);
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Edij = -0.5*(kw2 - kw1);
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//printf("Edij = %f Epij = %f \n", Edij,Epij);
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ixi = ix*m;
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jyi = jy*m;
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iz1 = ixi+jyi;
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iv1 = jyi-ixi;
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//iz2 = (n*m-iz1);
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//iv2 = (n*m-iv1);
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for (i = 0;i<m;i++,ixi++,jyi++,iz1++,iv1++) {
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rrA = rA[ixi]*rA[jyi]; ///rrA = rA[i][ix]*rA[i][jy];
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iiA = iA[ixi]*iA[jyi]; ///iiA = iA[i][ix]*iA[i][jy];
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riA = rA[ixi]*iA[jyi]; ///riA = rA[i][ix]*iA[i][jy];
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irA = iA[ixi]*rA[jyi]; ///irA = iA[i][ix]*rA[i][jy];
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/* Sum frequency effects */
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tmp1 = kfact*2.0*(rrA-iiA)*Epij;
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tmp2 = kfact*2.0*(riA+irA)*Epij;
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rvec[iz1] += tmp1;///rvec[i][ix+jy] += tmp1;
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ivec[iz1] += tmp2;///ivec[i][ix+jy] += tmp2;
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//rvec[iz2] += tmp1;///rvec[i][n*m-(ix+jy)] += tmp1;
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//ivec[iz2] -= tmp2;///ivec[i][n*m-(ix+jy)] -= tmp2;
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// iz2++;
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/* Difference frequency effects */
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tmp1 = kfact*2.0*(rrA+iiA)*Edij;
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tmp2 = kfact*2.0*(riA-irA)*Edij;
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rvec[iv1] += tmp1;///rvec[i][jy-ix] += tmp1;
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ivec[iv1] += tmp2;///ivec[i][jy-ix] += tmp2;
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//rvec[iv2] += tmp1;///rvec[i][n*m-(jy-ix)] += tmp1;
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//ivec[iv2] -= tmp2;///ivec[i][n*m-(jy-ix)] -= tmp2;
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//iv2++;
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}
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}
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}
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}
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else{ /* Finite water depth */
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for (ix = nmin-1;ix<nmax;ix++) {
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kw1 = kw[ix];
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w1 = w[ix];
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tmp1 = tanh(kw1*h);
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/// Cg, wave group velocity
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Cg = 0.5*g*(tmp1 + kw1*h*(1.0- tmp1*tmp1))/w1; /// OK
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tmp1 = 0.5*g*(kw1/w1)*(kw1/w1);
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tmp2 = 0.5*w1*w1/g;
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tmp3 = g*kw1/(w1*Cg);
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if (kw1*h<300.0){
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tmp4 = kw1/sinh(2.0*kw1*h);
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}
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else{ // To ensure sinh does not overflow.
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tmp4 = 0.0;
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}
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// Difference frequency effects finite water depth
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Edij = (tmp1-tmp2+tmp3)/(1.0-g*h/(Cg*Cg))-tmp4; /// OK
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// Sum frequency effects finite water depth
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Epij = (3.0*(tmp1-tmp2)/(1.0-tmp1/kw1*tanh(2.0*kw1*h))+3.0*tmp2-tmp1); /// OK
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//printf("Edij = %f Epij = %f \n", Edij,Epij);
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ixi = ix*m;
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iz1 = 2*ixi;
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//iz2 = n*m-ixi;
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for (i=0;i<m;i++,ixi++,iz1++) {
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rrA = rA[ixi]*rA[ixi]; ///
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iiA = iA[ixi]*iA[ixi]; ///
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riA = rA[ixi]*iA[ixi]; ///
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/// Sum frequency effects along the diagonal
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rvec[iz1] += kfact*(rrA-iiA)*Epij;
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ivec[iz1] += kfact*2.0*riA*Epij;
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//rvec[iz2] += kfact*(rrA-iiA)*Epij;
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//ivec[iz2] -= kfact*2.0*riA*Epij;
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//iz2++;
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/// Difference frequency effects along the diagonal
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/// are only contributing to the mean
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rvec[i] += 2.0*(rrA+iiA)*Edij;
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}
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for (jy = ix+1;jy<nmax;jy++) {
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// w1 = w[ix];
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// kw1 = kw[ix];
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w2 = w[jy];
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kw2 = kw[jy];
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tmp1 = g*(kw1/w1)*(kw2/w2);
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tmp2 = 0.5/g*(w1*w1+w2*w2+w1*w2);
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tmp3 = 0.5*g*(w1*kw2*kw2+w2*kw1*kw1)/(w1*w2*(w1+w2));
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tmp4 = (1-g*(kw1+kw2)/(w1+w2)/(w1+w2)*tanh((kw1+kw2)*h));
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Epij = (tmp1-tmp2+tmp3)/tmp4+tmp2-0.5*tmp1; /* OK */
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tmp2 = 0.5/g*(w1*w1+w2*w2-w1*w2); /*OK*/
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tmp3 = -0.5*g*(w1*kw2*kw2-w2*kw1*kw1)/(w1*w2*(w1-w2));
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tmp4 = (1.0-g*(kw1-kw2)/(w1-w2)/(w1-w2)*tanh((kw1-kw2)*h));
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Edij = (tmp1-tmp2+tmp3)/tmp4+tmp2-0.5*tmp1; /* OK */
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//printf("Edij = %f Epij = %f \n", Edij,Epij);
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ixi = ix*m;
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jyi = jy*m;
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iz1 = ixi+jyi;
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iv1 = jyi-ixi;
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// iz2 = (n*m-iz1);
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// iv2 = n*m-iv1;
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for (i=0;i<m;i++,ixi++,jyi++,iz1++,iv1++) {
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rrA = rA[ixi]*rA[jyi]; ///rrA = rA[i][ix]*rA[i][jy];
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iiA = iA[ixi]*iA[jyi]; ///iiA = iA[i][ix]*iA[i][jy];
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riA = rA[ixi]*iA[jyi]; ///riA = rA[i][ix]*iA[i][jy];
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irA = iA[ixi]*rA[jyi]; ///irA = iA[i][ix]*rA[i][jy];
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/* Sum frequency effects */
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tmp1 = kfact*2.0*(rrA-iiA)*Epij;
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tmp2 = kfact*2.0*(riA+irA)*Epij;
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rvec[iz1] += tmp1;///rvec[i][jy+ix] += tmp1;
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ivec[iz1] += tmp2;///ivec[i][jy+ix] += tmp2;
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//rvec[iz2] += tmp1;///rvec[i][n*m-(jy+ix)] += tmp1;
|
||||
//ivec[iz2] -= tmp2;///ivec[i][n*m-(jy+ix)] -= tmp2;
|
||||
//iz2++;
|
||||
|
||||
/* Difference frequency effects */
|
||||
tmp1 = kfact*2.0*(rrA+iiA)*Edij;
|
||||
tmp2 = kfact*2.0*(riA-irA)*Edij;
|
||||
rvec[iv1] += tmp1;///rvec[i][jy-ix] += tmp1;
|
||||
ivec[iv1] += tmp2;///ivec[i][jy-ix] -= tmp2;
|
||||
|
||||
//rvec[iv2] += tmp1;
|
||||
//ivec[iv2] -= tmp2;
|
||||
//iv2++;
|
||||
}
|
||||
}
|
||||
}
|
||||
}
|
||||
//return i;
|
||||
}
|
||||
/*
|
||||
* DISUFQ2 Is an internal function to spec2nlsdat
|
||||
*
|
||||
* CALL: disufq2(rsvec,isvec,rdvec,idvec,rA,iA, w,kw,h,g,nmin,nmax,m,n)
|
||||
*
|
||||
* rsvec, isvec = real and imaginary parts of the sum frequency
|
||||
* effects (size m X n).
|
||||
* rdvec, idvec = real and imaginary parts of the difference frequency
|
||||
* effects (size m X n).
|
||||
* rA, iA = real and imaginary parts of the amplitudes (size m X n).
|
||||
* w = vector with angular frequencies (w>=0)
|
||||
* kw = vector with wavenumbers (kw>=0)
|
||||
* h = water depth (h >=0)
|
||||
* g = constant acceleration of gravity
|
||||
* nmin = minimum index where rA(:,nmin) and iA(:,nmin) is
|
||||
* greater than zero.
|
||||
* nmax = maximum index where rA(:,nmax) and iA(:,nmax) is
|
||||
* greater than zero.
|
||||
* m = size(rA,1),size(iA,1)
|
||||
* n = size(rA,2),size(iA,2), or size(rvec,2),size(ivec,2)
|
||||
*
|
||||
* DISUFQ2 returns the summation of sum and difference frequency
|
||||
* frequency effects in the vectors svec = rsvec +sqrt(-1)*isvec and
|
||||
* dvec = rdvec +sqrt(-1)*idvec.
|
||||
* The 2'nd order contribution to the Stokes wave is then calculated by
|
||||
* a simple 1D Fourier transform, real(FFT(svec+dvec)).
|
||||
*
|
||||
*
|
||||
* This is a MEX-file for MATLAB.
|
||||
* by Per Andreas Brodtkorb 15.08.2001
|
||||
* revised pab 14.03.2002, 01.05.2002
|
||||
*/
|
||||
|
||||
void disufq2(double *rsvec, double *isvec,
|
||||
double *rdvec, double *idvec,
|
||||
double *rA, double *iA,
|
||||
double *w, double *kw,
|
||||
double h, double g,
|
||||
int nmin, int nmax,
|
||||
int m, int n)
|
||||
{
|
||||
double Epij, Edij;
|
||||
double tmp1, tmp2, tmp3, tmp4, kfact;
|
||||
double w1, w2, kw1, kw2, Cg;
|
||||
double rrA, iiA, riA, irA;
|
||||
int i,jy,ix,iz1,iv1,ixi,jyi;
|
||||
//int iz2,iv2
|
||||
|
||||
//Initialize rvec and ivec to zero
|
||||
for (ix=0;ix<n*m;ix++) {
|
||||
rsvec[ix] = 0.0;
|
||||
isvec[ix] = 0.0;
|
||||
rdvec[ix] = 0.0;
|
||||
idvec[ix] = 0.0;
|
||||
}
|
||||
|
||||
// kfact is set to 2 in order to exploit the symmetry.
|
||||
// If you set kfact to 1, you must uncomment all statements
|
||||
// including the expressions: rvec[iz2], rvec[iv2], ivec[iz2] and ivec[iv2].
|
||||
|
||||
kfact = 2.0;
|
||||
if (h>10000){ /* deep water /Inifinite water depth */
|
||||
for (ix = nmin-1;ix<nmax;ix++) {
|
||||
ixi = ix*m;
|
||||
iz1 = 2*ixi;
|
||||
//iz2 = n*m-ixi;
|
||||
kw1 = kw[ix];
|
||||
Epij = kw1;
|
||||
for (i=0;i<m;i++,ixi++,iz1++) {
|
||||
rrA = rA[ixi]*rA[ixi]; ///
|
||||
iiA = iA[ixi]*iA[ixi]; ///
|
||||
riA = rA[ixi]*iA[ixi]; ///
|
||||
|
||||
/// Sum frequency effects along the diagonal
|
||||
tmp1 = kfact*(rrA-iiA)*Epij;
|
||||
tmp2 = kfact*2.0*riA*Epij;
|
||||
rsvec[iz1] += tmp1;
|
||||
isvec[iz1] += tmp2;
|
||||
|
||||
//rsvec[iz2] += tmp1;
|
||||
//isvec[iz2] -= tmp2;
|
||||
//iz2++;
|
||||
|
||||
/// Difference frequency effects are zero along the diagonal
|
||||
/// and are thus not contributing to the mean.
|
||||
}
|
||||
for (jy = ix+1;jy<nmax;jy++){
|
||||
kw2 = kw[jy];
|
||||
Epij = 0.5*(kw2 + kw1);
|
||||
Edij = -0.5*(kw2 - kw1);
|
||||
//printf("Edij = %f Epij = %f \n", Edij,Epij);
|
||||
|
||||
ixi = ix*m;
|
||||
jyi = jy*m;
|
||||
iz1 = ixi+jyi;
|
||||
iv1 = jyi-ixi;
|
||||
//iz2 = (n*m-iz1);
|
||||
//iv2 = (n*m-iv1);
|
||||
for (i = 0;i<m;i++,ixi++,jyi++,iz1++,iv1++) {
|
||||
|
||||
rrA = rA[ixi]*rA[jyi]; ///rrA = rA[i][ix]*rA[i][jy];
|
||||
iiA = iA[ixi]*iA[jyi]; ///iiA = iA[i][ix]*iA[i][jy];
|
||||
riA = rA[ixi]*iA[jyi]; ///riA = rA[i][ix]*iA[i][jy];
|
||||
irA = iA[ixi]*rA[jyi]; ///irA = iA[i][ix]*rA[i][jy];
|
||||
|
||||
/* Sum frequency effects */
|
||||
tmp1 = kfact*2.0*(rrA-iiA)*Epij;
|
||||
tmp2 = kfact*2.0*(riA+irA)*Epij;
|
||||
rsvec[iz1] += tmp1; ///rvec[i][ix+jy] += tmp1;
|
||||
isvec[iz1] += tmp2; ///ivec[i][ix+jy] += tmp2;
|
||||
//rsvec[iz2] += tmp1;///rvec[i][n*m-(ix+jy)] += tmp1;
|
||||
//isvec[iz2] -= tmp2;///ivec[i][n*m-(ix+jy)] += tmp2;
|
||||
//iz2++;
|
||||
|
||||
/* Difference frequency effects */
|
||||
tmp1 = kfact*2.0*(rrA+iiA)*Edij;
|
||||
tmp2 = kfact*2.0*(riA-irA)*Edij;
|
||||
|
||||
rdvec[iv1] += tmp1;///rvec[i][jy-ix] += tmp1;
|
||||
idvec[iv1] += tmp2;///ivec[i][jy-ix] += tmp2;
|
||||
|
||||
//rdvec[iv2] += tmp1;///rvec[i][n*m-(jy-ix)] += tmp1;
|
||||
//idvec[iv2] -= tmp2;///ivec[i][n*m-(jy-ix)] -= tmp2;
|
||||
// iv2++;
|
||||
}
|
||||
}
|
||||
}
|
||||
}
|
||||
else{ /* Finite water depth */
|
||||
for (ix = nmin-1;ix<nmax;ix++) {
|
||||
kw1 = kw[ix];
|
||||
w1 = w[ix];
|
||||
tmp1 = tanh(kw1*h);
|
||||
/// Cg, wave group velocity
|
||||
Cg = 0.5*g*(tmp1 + kw1*h*(1.0- tmp1*tmp1))/w1; /// OK
|
||||
tmp1 = 0.5*g*(kw1/w1)*(kw1/w1);
|
||||
tmp2 = 0.5*w1*w1/g;
|
||||
tmp3 = g*kw1/(w1*Cg);
|
||||
|
||||
if (kw1*h<300.0){
|
||||
tmp4 = kw1/sinh(2.0*kw1*h);
|
||||
}
|
||||
else{ // To ensure sinh does not overflow.
|
||||
tmp4 = 0.0;
|
||||
}
|
||||
// Difference frequency effects finite water depth
|
||||
Edij = (tmp1-tmp2+tmp3)/(1.0-g*h/(Cg*Cg))-tmp4; /// OK
|
||||
|
||||
// Sum frequency effects finite water depth
|
||||
Epij = (3.0*(tmp1-tmp2)/(1.0-tmp1/kw1*tanh(2.0*kw1*h))+3.0*tmp2-tmp1); /// OK
|
||||
//printf("Edij = %f Epij = %f \n", Edij,Epij);
|
||||
|
||||
ixi = ix*m;
|
||||
iz1 = 2*ixi;
|
||||
//iz2 = n*m-ixi;
|
||||
for (i=0;i<m;i++,ixi++,iz1++) {
|
||||
|
||||
rrA = rA[ixi]*rA[ixi]; ///
|
||||
iiA = iA[ixi]*iA[ixi]; ///
|
||||
riA = rA[ixi]*iA[ixi]; ///
|
||||
|
||||
|
||||
/// Sum frequency effects along the diagonal
|
||||
rsvec[iz1] += kfact*(rrA-iiA)*Epij;
|
||||
isvec[iz1] += kfact*2.0*riA*Epij;
|
||||
//rsvec[iz2] += kfact*(rrA-iiA)*Epij;
|
||||
//isvec[iz2] -= kfact*2.0*riA*Epij;
|
||||
|
||||
/// Difference frequency effects along the diagonal
|
||||
/// are only contributing to the mean
|
||||
//printf(" %f \n",2.0*(rrA+iiA)*Edij);
|
||||
rdvec[i] += 2.0*(rrA+iiA)*Edij;
|
||||
}
|
||||
for (jy = ix+1;jy<nmax;jy++) {
|
||||
// w1 = w[ix];
|
||||
// kw1 = kw[ix];
|
||||
w2 = w[jy];
|
||||
kw2 = kw[jy];
|
||||
tmp1 = g*(kw1/w1)*(kw2/w2);
|
||||
tmp2 = 0.5/g*(w1*w1+w2*w2+w1*w2);
|
||||
tmp3 = 0.5*g*(w1*kw2*kw2+w2*kw1*kw1)/(w1*w2*(w1+w2));
|
||||
tmp4 = (1-g*(kw1+kw2)/(w1+w2)/(w1+w2)*tanh((kw1+kw2)*h));
|
||||
Epij = (tmp1-tmp2+tmp3)/tmp4+tmp2-0.5*tmp1; /* OK */
|
||||
|
||||
tmp2 = 0.5/g*(w1*w1+w2*w2-w1*w2); /*OK*/
|
||||
tmp3 = -0.5*g*(w1*kw2*kw2-w2*kw1*kw1)/(w1*w2*(w1-w2));
|
||||
tmp4 = (1.0-g*(kw1-kw2)/(w1-w2)/(w1-w2)*tanh((kw1-kw2)*h));
|
||||
Edij = (tmp1-tmp2+tmp3)/tmp4+tmp2-0.5*tmp1; /* OK */
|
||||
//printf("Edij = %f Epij = %f \n", Edij,Epij);
|
||||
|
||||
ixi = ix*m;
|
||||
jyi = jy*m;
|
||||
iz1 = ixi+jyi;
|
||||
iv1 = jyi-ixi;
|
||||
// iz2 = (n*m-iz1);
|
||||
// iv2 = (n*m-iv1);
|
||||
for (i=0;i<m;i++,ixi++,jyi++,iz1++,iv1++) {
|
||||
rrA = rA[ixi]*rA[jyi]; ///rrA = rA[i][ix]*rA[i][jy];
|
||||
iiA = iA[ixi]*iA[jyi]; ///iiA = iA[i][ix]*iA[i][jy];
|
||||
riA = rA[ixi]*iA[jyi]; ///riA = rA[i][ix]*iA[i][jy];
|
||||
irA = iA[ixi]*rA[jyi]; ///irA = iA[i][ix]*rA[i][jy];
|
||||
|
||||
/* Sum frequency effects */
|
||||
tmp1 = kfact*2.0*(rrA-iiA)*Epij;
|
||||
tmp2 = kfact*2.0*(riA+irA)*Epij;
|
||||
rsvec[iz1] += tmp1;///rsvec[i][jy+ix] += tmp1;
|
||||
isvec[iz1] += tmp2;///isvec[i][jy+ix] += tmp2;
|
||||
//rsvec[iz2] += tmp1;///rsvec[i][n*m-(jy+ix)] += tmp1;
|
||||
//isvec[iz2] -= tmp2;///isvec[i][n*m-(jy-ix)] += tmp2;
|
||||
//iz2++;
|
||||
|
||||
/* Difference frequency effects */
|
||||
tmp1 = kfact*2.0*(rrA+iiA)*Edij;
|
||||
tmp2 = kfact*2.0*(riA-irA)*Edij;
|
||||
rdvec[iv1] += tmp1;
|
||||
idvec[iv1] += tmp2;
|
||||
|
||||
//rdvec[iv2] += tmp1;
|
||||
//idvec[iv2] -= tmp2;
|
||||
// iv2++;
|
||||
}
|
||||
}
|
||||
}
|
||||
}
|
||||
// return i;
|
||||
}
|
||||
@ -1,53 +0,0 @@
|
||||
|
||||
|
||||
/*
|
||||
* findcross.c -
|
||||
*
|
||||
* Returns indices to level v crossings of argument vector
|
||||
*
|
||||
* 1998 by Per Andreas Brodtkorb. last modified 23.06-98
|
||||
*/
|
||||
|
||||
|
||||
void findcross(double *y, double v, double *ind, int n, int info)
|
||||
{ int i,start, ix=0,dcross=0;
|
||||
|
||||
if ( *(y +0)< v){
|
||||
dcross=-1; /* first is a up-crossing*/
|
||||
}
|
||||
if ( *(y +0)> v){
|
||||
dcross=1; /* first is a down-crossing*/
|
||||
}
|
||||
start=0;
|
||||
if ( *(y +0)== v){
|
||||
/* Find out what type of crossing we have next time.. */
|
||||
for (i=1; i<n; i++) {
|
||||
start=i;
|
||||
if ( *(y +i)< v){
|
||||
*(ind + ix) = i; /* first crossing is a down crossing*/
|
||||
ix++;
|
||||
dcross=-1; /* The next crossing is a up-crossing*/
|
||||
break;
|
||||
}
|
||||
if ( *(y +i)> v){
|
||||
*(ind + ix) = i; /* first crossing is a up-crossing*/
|
||||
ix++;
|
||||
dcross=1; /*The next crossing is a down-crossing*/
|
||||
break;
|
||||
}
|
||||
}
|
||||
}
|
||||
|
||||
for (i=start; i<n-1; i++) {
|
||||
if (( (dcross==-1) && (*(y +i)<=h) && (*(y+i+1) > h) ) || ((dcross==1 ) && (*(y +i)>=h) && (*(y+i+1) < h) ) ) {
|
||||
|
||||
*(ind + ix) = i+1 ;
|
||||
ix++;
|
||||
dcross=-dcross;
|
||||
}
|
||||
}
|
||||
info = ix
|
||||
return;
|
||||
}
|
||||
|
||||
|
||||
@ -1,118 +0,0 @@
|
||||
#include "math.h"
|
||||
/*
|
||||
* findrfc.c -
|
||||
*
|
||||
* Returns indices to RFC turningpoints of a vector
|
||||
* of turningpoints
|
||||
*
|
||||
* Install gfortran and run the following to build the module:
|
||||
* f2py rfc.pyf findrfc.c -c --fcompiler=gnu95 --compiler=mingw32 -lmsvcr71
|
||||
*
|
||||
* 1998 by Per Andreas Brodtkorb.
|
||||
*/
|
||||
|
||||
void findrfc(double *y1,double hmin, int *ind, int n,int info) {
|
||||
double xminus,xplus,Tpl,Tmi,*y,Tstart;
|
||||
int i,j,ix=0,NC,iy;
|
||||
|
||||
if (*(y1+0)> *(y1+1)){
|
||||
/* if first is a max , ignore the first max*/
|
||||
y=&(*(y1+1));
|
||||
NC=floor((n-1)/2);
|
||||
Tstart=2;
|
||||
}
|
||||
else {
|
||||
y=y1;
|
||||
NC=floor(n/2);
|
||||
Tstart=1;
|
||||
}
|
||||
|
||||
if (NC<1){
|
||||
info = 0;
|
||||
return; /* No RFC cycles*/
|
||||
}
|
||||
|
||||
|
||||
if (( *(y+0) > *(y+1)) && ( *(y+1) > *(y+2)) ){
|
||||
info = -1;
|
||||
return; /*This is not a sequence of turningpoints, exit */
|
||||
}
|
||||
if ((*(y+0) < *(y+1)) && (*(y+1)< *(y+2))){
|
||||
info=-1;
|
||||
return; /*This is not a sequence of turningpoints, exit */
|
||||
}
|
||||
|
||||
|
||||
for (i=0; i<NC; i++) {
|
||||
|
||||
Tmi=Tstart+2*i;
|
||||
Tpl=Tstart+2*i+2;
|
||||
xminus=*(y+2*i);
|
||||
xplus=*(y+2*i+2);
|
||||
|
||||
if(i!=0){
|
||||
j=i-1;
|
||||
while((j>=0) && (*(y+2*j+1)<=*(y+2*i+1))){
|
||||
if( (*(y+2*j)<xminus) ){
|
||||
xminus=*(y+2*j);
|
||||
Tmi=Tstart+2*j;
|
||||
} /*if */
|
||||
j--;
|
||||
} /*while j*/
|
||||
} /*if i */
|
||||
if ( xminus >= xplus){
|
||||
if ( (*(y+2*i+1)-xminus) >= hmin){
|
||||
*(ind+ix)=Tmi;
|
||||
ix++;
|
||||
*(ind+ix)=(Tstart+2*i+1);
|
||||
ix++;
|
||||
} /*if*/
|
||||
goto L180;
|
||||
}
|
||||
|
||||
j=i+1;
|
||||
while((j<NC) ) {
|
||||
if (*(y+2*j+1) >= *(y+2*i+1)) goto L170;
|
||||
if( (*(y+2*j+2) <= xplus) ){
|
||||
xplus=*(y+2*j+2);
|
||||
Tpl=(Tstart+2*j+2);
|
||||
}/*if*/
|
||||
j++;
|
||||
} /*while*/
|
||||
|
||||
|
||||
if ( (*(y+2*i+1)-xminus) >= hmin) {
|
||||
*(ind+ix)=Tmi;
|
||||
ix++;
|
||||
*(ind+ix)=(Tstart+2*i+1);
|
||||
ix++;
|
||||
|
||||
} /*if*/
|
||||
goto L180;
|
||||
L170:
|
||||
if (xplus <= xminus ) {
|
||||
if ( (*(y+2*i+1)-xminus) >= hmin){
|
||||
*(ind+ix)=Tmi;
|
||||
ix++;
|
||||
*(ind+ix)=(Tstart+2*i+1);
|
||||
ix++;
|
||||
} /*if*/
|
||||
/*goto L180;*/
|
||||
}
|
||||
else{
|
||||
if ( (*(y+2*i+1)-xplus) >= hmin) {
|
||||
*(ind+ix)=(Tstart+2*i+1);
|
||||
ix++;
|
||||
*(ind+ix)=Tpl;
|
||||
ix++;
|
||||
} /*if*/
|
||||
} /*elseif*/
|
||||
L180:
|
||||
iy=i;
|
||||
} /* for i */
|
||||
info = ix;
|
||||
return ;
|
||||
}
|
||||
|
||||
|
||||
|
||||
Binary file not shown.
@ -1,14 +0,0 @@
|
||||
! File rfc.pyf
|
||||
python module rfc
|
||||
interface
|
||||
subroutine findrfc(y1,hmin, ind, n,info)
|
||||
intent(c) findrfc ! findrfc is a C function
|
||||
intent(c) ! all findrfc arguments are considered as C based
|
||||
integer intent(hide), depend(y1) :: n=len(y1)
|
||||
double precision dimension(n), intent(in) :: y1 ! input array
|
||||
double precision intent(in) :: hmin
|
||||
integer dimension(n), intent(out) :: ind ! output array,
|
||||
integer intent(out) :: info
|
||||
end subroutine findrfc
|
||||
end interface
|
||||
end python module rfc
|
||||
@ -0,0 +1,25 @@
|
||||
"""
|
||||
f2py c_library.pyf c_functions.c -c
|
||||
|
||||
See also http://www.scipy.org/Cookbook/CompilingExtensionsOnWindowsWithMinGW
|
||||
"""
|
||||
import os
|
||||
import sys
|
||||
from wafo.f2py_tools import f2py_call_str
|
||||
|
||||
def compile_all():
|
||||
f2py_call = f2py_call_str()
|
||||
print '=' * 75
|
||||
print 'compiling c_codes'
|
||||
print '=' * 75
|
||||
|
||||
compile_format = f2py_call + ' %s %s -c'
|
||||
|
||||
pyfs = ('c_library.pyf',)
|
||||
files = ('c_functions.c',)
|
||||
|
||||
for pyf, file_ in zip(pyfs, files):
|
||||
os.system(compile_format % (pyf, file_))
|
||||
|
||||
if __name__ == '__main__':
|
||||
compile_all()
|
||||
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|
||||
"""
|
||||
builds mvnprdmod.pyd
|
||||
"""
|
||||
"""builds mvnprdmod.pyd."""
|
||||
import os
|
||||
import sys
|
||||
from wafo.f2py_tools import f2py_call_str
|
||||
|
||||
def which(program):
|
||||
"""
|
||||
Test if program exists
|
||||
======================
|
||||
|
||||
In order to test if a certain executable exists, it will search for the
|
||||
program name in the environment variables.
|
||||
If program is a full path to an executable, it will check it exists
|
||||
|
||||
Copied from:
|
||||
http://stackoverflow.com/questions/377017/test-if-executable-exists-in-python/
|
||||
It is supposed to mimic the UNIX command "which"
|
||||
"""
|
||||
|
||||
def is_exe(fpath):
|
||||
return os.path.exists(fpath) and os.access(fpath, os.X_OK)
|
||||
|
||||
fpath, fname = os.path.split(program)
|
||||
if fpath:
|
||||
if is_exe(program):
|
||||
return program
|
||||
else:
|
||||
for path in os.environ["PATH"].split(os.pathsep):
|
||||
exe_file = os.path.join(path, program)
|
||||
if is_exe(exe_file):
|
||||
return exe_file
|
||||
|
||||
return None
|
||||
|
||||
|
||||
def f2py_call_str():
|
||||
# regardless of platform, try to figure out which f2py call is in the path
|
||||
# define possible options
|
||||
|
||||
# on Arch Linux, python and f2py are the calls corresponding to python 3
|
||||
# and python2/f2py2 for python 2
|
||||
# other Linux versions might still use python/f2py for python 2
|
||||
if os.path.basename(sys.executable).endswith('2'):
|
||||
for k in ('f2py2','f2py2.6','f2py2.7',):
|
||||
# if we found the f2py path, no need to look further
|
||||
if which(k):
|
||||
f2py_call = k
|
||||
f2py_path = which(k)
|
||||
break
|
||||
# on Windows and other Linux using python/f2py
|
||||
else:
|
||||
for k in ('f2py','f2py2.6','f2py2.7','f2py.py',):
|
||||
# if we found the f2py path, no need to look further
|
||||
if which(k):
|
||||
f2py_call = k
|
||||
f2py_path = which(k)
|
||||
break
|
||||
|
||||
try:
|
||||
print 'found f2py in:', f2py_path
|
||||
return f2py_call
|
||||
# raise exception if f2py is not found, f2py_path variable will not exist
|
||||
except NameError:
|
||||
raise UserWarning, \
|
||||
'Couldn\'t locate f2py. Should be part of NumPy installation.'
|
||||
# # this might vary among specific cases: f2py, f2py2.7, f2py3.2, ...
|
||||
# # TODO: more robust approach, find out what f2py is in the users path
|
||||
# if os.name == 'posix':
|
||||
# compile_format = 'f2py2.6 %s %s -c'
|
||||
#
|
||||
# # Install microsoft visual c++ .NET 2003 and run the following to build the module:
|
||||
# elif os.name == 'nt':
|
||||
# # compile_format = 'f2py.py %s %s -c --fcompiler=gnu95 --compiler=mingw32 -lmsvcr71'
|
||||
# compile_format = 'f2py.py %s %s -c'
|
||||
#
|
||||
# # give an Error for other OS-es
|
||||
# else:
|
||||
# raise UserWarning, \
|
||||
# 'Untested platform:', os.name
|
||||
|
||||
def compile_all():
|
||||
f2py_call = f2py_call_str()
|
||||
print '='*75
|
||||
print '=' * 75
|
||||
print 'compiling mvnprd'
|
||||
print '='*75
|
||||
print '=' * 75
|
||||
|
||||
files = ['mvnprd', 'mvnprodcorrprb']
|
||||
compile1_format = 'gfortran -fPIC -c %s.f'
|
||||
for file in files:
|
||||
os.system(compile1_format % file)
|
||||
for file_ in files:
|
||||
os.system(compile1_format % file_)
|
||||
file_objects = '%s.o %s.o' % tuple(files)
|
||||
|
||||
# os.system('f2py.py -m mvnprdmod -c %s mvnprd_interface.f
|
||||
# --fcompiler=gnu95 --compiler=mingw32 -lmsvcr71' % file_objects)
|
||||
os.system(f2py_call + ' -m mvnprdmod -c %s mvnprd_interface.f ' %
|
||||
file_objects)
|
||||
|
||||
#os.system('f2py.py -m mvnprdmod -c %s mvnprd_interface.f --fcompiler=gnu95 --compiler=mingw32 -lmsvcr71' % file_objects)
|
||||
os.system(f2py_call + ' -m mvnprdmod -c %s mvnprd_interface.f ' % file_objects)
|
||||
|
||||
if __name__=='__main__':
|
||||
if __name__ == '__main__':
|
||||
compile_all()
|
||||
|
||||
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Reference in New Issue