def store_quaddobl_tropism(dim, idx, wnd, dir, err):
r"""
Stores the tropism, given in standard double precision,
with *dim* doubles as coordinates in the list *dir*, the error in *err*,
and the winding number *wnd*, at position *idx*.
The index *idx* must be in the range 1..quaddobl_size().
"""
from phcpy.phcpy2c2 import py2c_numbtrop_store_quaddobl_tropism as store
data = [x for x in dir]
data.append(err)
strdata = str(data)
store(dim, idx, wnd, strdata)
def store_quaddobl_tropism(dim, idx, wnd, dir, err):
r"""
Stores the tropism, given in standard double precision,
with *dim* doubles as coordinates in the list *dir*, the error in *err*,
and the winding number *wnd*, at position *idx*.
The index *idx* must be in the range 1..quaddobl_size().
"""
from phcpy.phcpy2c2 import py2c_numbtrop_store_quaddobl_tropism as store
data = [x for x in dir]
data.append(err)
strdata = str(data)
store(dim, idx, wnd, strdata)
def store_dobldobl_tropism(dim, idx, wnd, dir, err):
"""
Stores the tropism, given in standard double precision,
with dim doubles as coordinates in the list dir, the error in err,
and the winding number wnd, at position idx.
The index idx must be in the range 1..dobldobl_size().
"""
from phcpy.phcpy2c2 import py2c_numbtrop_store_dobldobl_tropism as store
data = [x for x in dir]
data.append(err)
strdata = str(data)
store(dim, idx, wnd, strdata)
def store_dobldobl_tropism(dim, idx, wnd, dir, err):
"""
Stores the tropism, given in standard double precision,
with dim doubles as coordinates in the list dir, the error in err,
and the winding number wnd, at position idx.
The index idx must be in the range 1..dobldobl_size().
"""
from phcpy.phcpy2c2 import py2c_numbtrop_store_dobldobl_tropism as store
data = [x for x in dir]
data.append(err)
strdata = str(data)
store(dim, idx, wnd, strdata)
def standard_initialize(nbt, dim, wnd, dir, err):
"""
Initializes the direction vectors computed in double precision,
along with estimates for their winding numbers and errors.
On entry are the following five parameters:
nbt : the number of direction vectors;
dim : the number of coordinates in each vector;
wnd : a list of integer values for the winding numbers, as many as nbt;
dir : a list of lists of doubles with the coordinates of the directions,
each inner list has dim doubles and nbt vectors are given;
err : a list of nbt doubles.
"""
from phcpy.phcpy2c2 import py2c_numbtrop_standard_initialize as store
flat = []
for vec in dir:
flat = flat + vec
data = wnd + flat + err
store(nbt, dim, str(data))
def standard_initialize(nbt, dim, wnd, dir, err):
"""
Initializes the direction vectors computed in double precision,
along with estimates for their winding numbers and errors.
On entry are the following five parameters:
nbt : the number of direction vectors;
dim : the number of coordinates in each vector;
wnd : a list of integer values for the winding numbers, as many as nbt;
dir : a list of lists of doubles with the coordinates of the directions,
each inner list has dim doubles and nbt vectors are given;
err : a list of nbt doubles.
"""
from phcpy.phcpy2c2 import py2c_numbtrop_standard_initialize as store
flat = []
for vec in dir:
flat = flat + vec
data = wnd + flat + err
store(nbt, dim, str(data))
def quaddobl_initialize(nbt, dim, wnd, dir, err):
r"""
Initializes the direction vectors computed in quad double precision,
along with estimates for their winding numbers and errors.
On entry are the following five parameters:
*nbt*: the number of direction vectors;
*dim*: the number of coordinates in each vector;
*wnd*: a list of integer values for the winding numbers, as many as *nbt*;
*dir*: a list of lists of quad doubles with the coordinates of the
directions, each inner list has *dim* quad doubles and *nbt* vectors;
*err*: a list of nbt quad doubles.
"""
from phcpy.phcpy2c2 import py2c_numbtrop_quaddobl_initialize as store
flat = []
for vec in dir:
flat = flat + vec
data = wnd + flat + err
store(nbt, dim, str(data))
def quaddobl_initialize(nbt, dim, wnd, dir, err):
r"""
Initializes the direction vectors computed in quad double precision,
along with estimates for their winding numbers and errors.
On entry are the following five parameters:
*nbt*: the number of direction vectors;
*dim*: the number of coordinates in each vector;
*wnd*: a list of integer values for the winding numbers, as many as *nbt*;
*dir*: a list of lists of quad doubles with the coordinates of the
directions, each inner list has *dim* quad doubles and *nbt* vectors;
*err*: a list of nbt quad doubles.
"""
from phcpy.phcpy2c2 import py2c_numbtrop_quaddobl_initialize as store
flat = []
for vec in dir:
flat = flat + vec
data = wnd + flat + err
store(nbt, dim, str(data))
def store_standard_tableau(poltab, verbose=False):
r"""
Stores the polynomial system given in the list of lists *poltab* in
the container for systems with coefficients in standard double precision.
Every polynomial in the system is represented by a list of tuples.
A monomial is represented by a 2-tuple:
1. the coefficient of the monomial is a complex number,
2. the exponent are a tuple of natural numbers.
For example, the system x^2 - y = 0, x^3 - z = 0 is represented as
[[((1+0j), (2, 0, 0)), ((-1+0j), (0, 1, 0))], \
[((1+0j), (3, 0, 0)), ((-1+0j), (0, 0, 1))]].
"""
from phcpy.phcpy2c2 import py2c_tabform_store_standard_tableau as store
neq = len(poltab) # number of equations
if verbose:
print 'number of equations :', neq
if neq > 0:
nvr = len(poltab[0][0][1]) # number of variables
if verbose:
print 'number of variables :', nvr
nbt = [len(pol) for pol in poltab] # number of terms
if verbose:
print 'number of terms :', nbt
cff = [[c for (c, e) in p] for p in poltab] # coefficients
if verbose:
print 'the coefficients on input :', cff
flatcff = sum(cff, []) # flatten list of lists
frimcff = sum([[x.real, x.imag] for x in flatcff], [])
if verbose:
print 'flat list of coefficients :', frimcff
xps = [[e for (c, e) in p] for p in poltab] # exponents
if verbose:
print 'the exponents on input :', xps
txps = sum(xps, []) # list of tuples
lxps = [list(x) for x in txps] # list of lists
flatxps = sum(lxps, []) # flatten list of lists
if verbose:
print 'flat list of exponents :', flatxps
strnbt = str(nbt)
strcff = str(frimcff)
strxps = str(flatxps)
fail = store(neq, nvr, len(strnbt), strnbt, \
len(strcff), strcff, len(strxps), strxps, int(verbose))