/* Initialize a line buffer */
int NI_InitLineBuffer(PyArrayObject *array, int axis, maybelong size1,
maybelong size2, maybelong buffer_lines, double *buffer_data,
NI_ExtendMode extend_mode, double extend_value, NI_LineBuffer *buffer)
{
maybelong line_length = 0, array_lines = 0, size;
int ii;
size = 1;
for(ii = 0; ii < array->nd; ii++)
size *= array->dimensions[ii];
/* check if the buffer is big enough: */
if (size > 0 && buffer_lines < 1) {
PyErr_SetString(PyExc_RuntimeError, "buffer too small");
return 0;
}
/* Initialize a line iterator to move over the array: */
if (!NI_InitPointIterator(array, &(buffer->iterator)))
return 0;
if (!NI_LineIterator(&(buffer->iterator), axis))
return 0;
line_length = array->nd > 0 ? array->dimensions[axis] : 1;
if (line_length > 0)
array_lines = line_length > 0 ? size / line_length : 1;
/* initialize the buffer structure: */
buffer->array_data = (void *)PyArray_DATA(array);
buffer->buffer_data = buffer_data;
buffer->buffer_lines = buffer_lines;
buffer->array_type = array->descr->type_num;
buffer->array_lines = array_lines;
buffer->next_line = 0;
buffer->size1 = size1;
buffer->size2 = size2;
buffer->line_length = line_length;
buffer->line_stride = array->nd > 0 ? array->strides[axis] : 0;
buffer->extend_mode = extend_mode;
buffer->extend_value = extend_value;
return 1;
}
/* Initialize a line buffer */
int NI_InitLineBuffer(PyArrayObject *array, int axis, npy_intp size1,
npy_intp size2, npy_intp buffer_lines, double *buffer_data,
NI_ExtendMode extend_mode, double extend_value, NI_LineBuffer *buffer)
{
npy_intp line_length = 0, array_lines = 0, size;
size = PyArray_SIZE(array);
/* check if the buffer is big enough: */
if (size > 0 && buffer_lines < 1) {
PyErr_SetString(PyExc_RuntimeError, "buffer too small");
return 0;
}
/* Initialize a line iterator to move over the array: */
if (!NI_InitPointIterator(array, &(buffer->iterator)))
return 0;
if (!NI_LineIterator(&(buffer->iterator), axis))
return 0;
line_length = PyArray_NDIM(array) > 0 ? PyArray_DIM(array, axis) : 1;
if (line_length > 0) {
array_lines = line_length > 0 ? size / line_length : 1;
}
/* initialize the buffer structure: */
buffer->array_data = (void *)PyArray_DATA(array);
buffer->buffer_data = buffer_data;
buffer->buffer_lines = buffer_lines;
buffer->array_type = NI_CanonicalType(PyArray_TYPE(array));
buffer->array_lines = array_lines;
buffer->next_line = 0;
buffer->size1 = size1;
buffer->size2 = size2;
buffer->line_length = line_length;
buffer->line_stride =
PyArray_NDIM(array) > 0 ? PyArray_STRIDE(array, axis) : 0;
buffer->extend_mode = extend_mode;
buffer->extend_value = extend_value;
return 1;
}
int
NI_GeometricTransform(PyArrayObject *input, int (*map)(npy_intp*, double*,
int, int, void*), void* map_data, PyArrayObject* matrix_ar,
PyArrayObject* shift_ar, PyArrayObject *coordinates,
PyArrayObject *output, int order, int mode, double cval)
{
char *po, *pi, *pc = NULL;
npy_intp **edge_offsets = NULL, **data_offsets = NULL, filter_size;
npy_intp ftmp[NPY_MAXDIMS], *fcoordinates = NULL, *foffsets = NULL;
npy_intp cstride = 0, kk, hh, ll, jj;
npy_intp size;
double **splvals = NULL, icoor[NPY_MAXDIMS];
npy_intp idimensions[NPY_MAXDIMS], istrides[NPY_MAXDIMS];
NI_Iterator io, ic;
npy_double *matrix = matrix_ar ? (npy_double*)PyArray_DATA(matrix_ar) : NULL;
npy_double *shift = shift_ar ? (npy_double*)PyArray_DATA(shift_ar) : NULL;
int irank = 0, orank;
NPY_BEGIN_THREADS_DEF;
NPY_BEGIN_THREADS;
for(kk = 0; kk < PyArray_NDIM(input); kk++) {
idimensions[kk] = PyArray_DIM(input, kk);
istrides[kk] = PyArray_STRIDE(input, kk);
}
irank = PyArray_NDIM(input);
orank = PyArray_NDIM(output);
/* if the mapping is from array coordinates: */
if (coordinates) {
/* initialize a line iterator along the first axis: */
if (!NI_InitPointIterator(coordinates, &ic))
goto exit;
cstride = ic.strides[0];
if (!NI_LineIterator(&ic, 0))
goto exit;
pc = (void *)(PyArray_DATA(coordinates));
}
/* offsets used at the borders: */
edge_offsets = malloc(irank * sizeof(npy_intp*));
data_offsets = malloc(irank * sizeof(npy_intp*));
if (NPY_UNLIKELY(!edge_offsets || !data_offsets)) {
NPY_END_THREADS;
PyErr_NoMemory();
goto exit;
}
for(jj = 0; jj < irank; jj++)
data_offsets[jj] = NULL;
for(jj = 0; jj < irank; jj++) {
data_offsets[jj] = malloc((order + 1) * sizeof(npy_intp));
if (NPY_UNLIKELY(!data_offsets[jj])) {
NPY_END_THREADS;
PyErr_NoMemory();
goto exit;
}
}
/* will hold the spline coefficients: */
splvals = malloc(irank * sizeof(double*));
if (NPY_UNLIKELY(!splvals)) {
NPY_END_THREADS;
PyErr_NoMemory();
goto exit;
}
for(jj = 0; jj < irank; jj++)
splvals[jj] = NULL;
for(jj = 0; jj < irank; jj++) {
splvals[jj] = malloc((order + 1) * sizeof(double));
if (NPY_UNLIKELY(!splvals[jj])) {
NPY_END_THREADS;
PyErr_NoMemory();
goto exit;
}
}
filter_size = 1;
for(jj = 0; jj < irank; jj++)
filter_size *= order + 1;
/* initialize output iterator: */
if (!NI_InitPointIterator(output, &io))
goto exit;
/* get data pointers: */
pi = (void *)PyArray_DATA(input);
po = (void *)PyArray_DATA(output);
/* make a table of all possible coordinates within the spline filter: */
fcoordinates = malloc(irank * filter_size * sizeof(npy_intp));
/* make a table of all offsets within the spline filter: */
foffsets = malloc(filter_size * sizeof(npy_intp));
if (NPY_UNLIKELY(!fcoordinates || !foffsets)) {
NPY_END_THREADS;
PyErr_NoMemory();
goto exit;
}
for(jj = 0; jj < irank; jj++)
ftmp[jj] = 0;
kk = 0;
for(hh = 0; hh < filter_size; hh++) {
for(jj = 0; jj < irank; jj++)
fcoordinates[jj + hh * irank] = ftmp[jj];
foffsets[hh] = kk;
for(jj = irank - 1; jj >= 0; jj--) {
if (ftmp[jj] < order) {
ftmp[jj]++;
kk += istrides[jj];
break;
} else {
ftmp[jj] = 0;
kk -= istrides[jj] * order;
}
}
}
size = PyArray_SIZE(output);
for(kk = 0; kk < size; kk++) {
double t = 0.0;
int constant = 0, edge = 0;
npy_intp offset = 0;
if (map) {
NPY_END_THREADS;
/* call mappint functions: */
if (!map(io.coordinates, icoor, orank, irank, map_data)) {
if (!PyErr_Occurred())
PyErr_SetString(PyExc_RuntimeError,
"unknown error in mapping function");
goto exit;
}
NPY_BEGIN_THREADS;
} else if (matrix) {
/* do an affine transformation: */
npy_double *p = matrix;
for(hh = 0; hh < irank; hh++) {
icoor[hh] = 0.0;
for(ll = 0; ll < orank; ll++)
icoor[hh] += io.coordinates[ll] * *p++;
icoor[hh] += shift[hh];
}
} else if (coordinates) {
/* mapping is from an coordinates array: */
char *p = pc;
switch (PyArray_TYPE(coordinates)) {
CASE_MAP_COORDINATES(NPY_BOOL, npy_bool,
p, icoor, irank, cstride);
CASE_MAP_COORDINATES(NPY_UBYTE, npy_ubyte,
p, icoor, irank, cstride);
CASE_MAP_COORDINATES(NPY_USHORT, npy_ushort,
p, icoor, irank, cstride);
CASE_MAP_COORDINATES(NPY_UINT, npy_uint,
p, icoor, irank, cstride);
CASE_MAP_COORDINATES(NPY_ULONG, npy_ulong,
p, icoor, irank, cstride);
CASE_MAP_COORDINATES(NPY_ULONGLONG, npy_ulonglong,
p, icoor, irank, cstride);
CASE_MAP_COORDINATES(NPY_BYTE, npy_byte,
p, icoor, irank, cstride);
CASE_MAP_COORDINATES(NPY_SHORT, npy_short,
p, icoor, irank, cstride);
CASE_MAP_COORDINATES(NPY_INT, npy_int,
p, icoor, irank, cstride);
CASE_MAP_COORDINATES(NPY_LONG, npy_long,
p, icoor, irank, cstride);
CASE_MAP_COORDINATES(NPY_LONGLONG, npy_longlong,
p, icoor, irank, cstride);
CASE_MAP_COORDINATES(NPY_FLOAT, npy_float,
p, icoor, irank, cstride);
CASE_MAP_COORDINATES(NPY_DOUBLE, npy_double,
p, icoor, irank, cstride);
default:
NPY_END_THREADS;
PyErr_SetString(PyExc_RuntimeError,
"coordinate array data type not supported");
goto exit;
}
}
/* iterate over axes: */
for(hh = 0; hh < irank; hh++) {
/* if the input coordinate is outside the borders, map it: */
double cc = map_coordinate(icoor[hh], idimensions[hh], mode);
if (cc > -1.0) {
/* find the filter location along this axis: */
npy_intp start;
if (order & 1) {
start = (npy_intp)floor(cc) - order / 2;
} else {
start = (npy_intp)floor(cc + 0.5) - order / 2;
}
/* get the offset to the start of the filter: */
offset += istrides[hh] * start;
if (start < 0 || start + order >= idimensions[hh]) {
/* implement border mapping, if outside border: */
edge = 1;
edge_offsets[hh] = data_offsets[hh];
for(ll = 0; ll <= order; ll++) {
npy_intp idx = start + ll;
npy_intp len = idimensions[hh];
if (len <= 1) {
idx = 0;
} else {
npy_intp s2 = 2 * len - 2;
if (idx < 0) {
idx = s2 * (int)(-idx / s2) + idx;
idx = idx <= 1 - len ? idx + s2 : -idx;
} else if (idx >= len) {
idx -= s2 * (int)(idx / s2);
if (idx >= len)
idx = s2 - idx;
}
}
/* calculate and store the offests at this edge: */
edge_offsets[hh][ll] = istrides[hh] * (idx - start);
}
} else {
/* we are not at the border, use precalculated offsets: */
edge_offsets[hh] = NULL;
}
spline_coefficients(cc, order, splvals[hh]);
} else {
/* we use the constant border condition: */
constant = 1;
break;
}
}
if (!constant) {
npy_intp *ff = fcoordinates;
const int type_num = PyArray_TYPE(input);
t = 0.0;
for(hh = 0; hh < filter_size; hh++) {
double coeff = 0.0;
npy_intp idx = 0;
if (NPY_UNLIKELY(edge)) {
for(ll = 0; ll < irank; ll++) {
if (edge_offsets[ll])
idx += edge_offsets[ll][ff[ll]];
else
idx += ff[ll] * istrides[ll];
}
} else {
idx = foffsets[hh];
}
idx += offset;
switch (type_num) {
CASE_INTERP_COEFF(NPY_BOOL, npy_bool,
coeff, pi, idx);
CASE_INTERP_COEFF(NPY_UBYTE, npy_ubyte,
coeff, pi, idx);
CASE_INTERP_COEFF(NPY_USHORT, npy_ushort,
coeff, pi, idx);
CASE_INTERP_COEFF(NPY_UINT, npy_uint,
coeff, pi, idx);
CASE_INTERP_COEFF(NPY_ULONG, npy_ulong,
coeff, pi, idx);
CASE_INTERP_COEFF(NPY_ULONGLONG, npy_ulonglong,
coeff, pi, idx);
CASE_INTERP_COEFF(NPY_BYTE, npy_byte,
coeff, pi, idx);
CASE_INTERP_COEFF(NPY_SHORT, npy_short,
coeff, pi, idx);
CASE_INTERP_COEFF(NPY_INT, npy_int,
coeff, pi, idx);
CASE_INTERP_COEFF(NPY_LONG, npy_long,
coeff, pi, idx);
CASE_INTERP_COEFF(NPY_LONGLONG, npy_longlong,
coeff, pi, idx);
CASE_INTERP_COEFF(NPY_FLOAT, npy_float,
coeff, pi, idx);
CASE_INTERP_COEFF(NPY_DOUBLE, npy_double,
coeff, pi, idx);
default:
NPY_END_THREADS;
PyErr_SetString(PyExc_RuntimeError,
"data type not supported");
goto exit;
}
/* calculate the interpolated value: */
for(ll = 0; ll < irank; ll++)
if (order > 0)
coeff *= splvals[ll][ff[ll]];
t += coeff;
ff += irank;
}
} else {
t = cval;
}
/* store output value: */
switch (PyArray_TYPE(output)) {
CASE_INTERP_OUT(NPY_BOOL, npy_bool, po, t);
CASE_INTERP_OUT_UINT(UBYTE, npy_ubyte, po, t);
CASE_INTERP_OUT_UINT(USHORT, npy_ushort, po, t);
CASE_INTERP_OUT_UINT(UINT, npy_uint, po, t);
CASE_INTERP_OUT_UINT(ULONG, npy_ulong, po, t);
CASE_INTERP_OUT_UINT(ULONGLONG, npy_ulonglong, po, t);
CASE_INTERP_OUT_INT(BYTE, npy_byte, po, t);
CASE_INTERP_OUT_INT(SHORT, npy_short, po, t);
CASE_INTERP_OUT_INT(INT, npy_int, po, t);
CASE_INTERP_OUT_INT(LONG, npy_long, po, t);
CASE_INTERP_OUT_INT(LONGLONG, npy_longlong, po, t);
CASE_INTERP_OUT(NPY_FLOAT, npy_float, po, t);
CASE_INTERP_OUT(NPY_DOUBLE, npy_double, po, t);
default:
NPY_END_THREADS;
PyErr_SetString(PyExc_RuntimeError, "data type not supported");
goto exit;
}
if (coordinates) {
NI_ITERATOR_NEXT2(io, ic, po, pc);
} else {
NI_ITERATOR_NEXT(io, po);
}
}
exit:
NPY_END_THREADS;
free(edge_offsets);
if (data_offsets) {
for(jj = 0; jj < irank; jj++)
free(data_offsets[jj]);
free(data_offsets);
}
if (splvals) {
for(jj = 0; jj < irank; jj++)
free(splvals[jj]);
free(splvals);
}
free(foffsets);
free(fcoordinates);
return PyErr_Occurred() ? 0 : 1;
}
int
NI_GeometricTransform(PyArrayObject *input, int (*map)(npy_intp*, double*,
int, int, void*), void* map_data, PyArrayObject* matrix_ar,
PyArrayObject* shift_ar, PyArrayObject *coordinates,
PyArrayObject *output, int order, int mode, double cval)
{
char *po, *pi, *pc = NULL;
npy_intp **edge_offsets = NULL, **data_offsets = NULL, filter_size;
npy_intp ftmp[MAXDIM], *fcoordinates = NULL, *foffsets = NULL;
npy_intp cstride = 0, kk, hh, ll, jj, *idxs = NULL;
npy_intp size;
double **splvals = NULL, icoor[MAXDIM];
npy_intp idimensions[MAXDIM], istrides[MAXDIM];
NI_Iterator io, ic;
Float64 *matrix = matrix_ar ? (Float64*)PyArray_DATA(matrix_ar) : NULL;
Float64 *shift = shift_ar ? (Float64*)PyArray_DATA(shift_ar) : NULL;
int irank = 0, orank, qq;
for(kk = 0; kk < input->nd; kk++) {
idimensions[kk] = input->dimensions[kk];
istrides[kk] = input->strides[kk];
}
irank = input->nd;
orank = output->nd;
/* if the mapping is from array coordinates: */
if (coordinates) {
/* initialze a line iterator along the first axis: */
if (!NI_InitPointIterator(coordinates, &ic))
goto exit;
cstride = ic.strides[0];
if (!NI_LineIterator(&ic, 0))
goto exit;
pc = (void *)(PyArray_DATA(coordinates));
}
/* offsets used at the borders: */
edge_offsets = (npy_intp**)malloc(irank * sizeof(npy_intp*));
data_offsets = (npy_intp**)malloc(irank * sizeof(npy_intp*));
if (!edge_offsets || !data_offsets) {
PyErr_NoMemory();
goto exit;
}
for(jj = 0; jj < irank; jj++)
data_offsets[jj] = NULL;
for(jj = 0; jj < irank; jj++) {
data_offsets[jj] = (npy_intp*)malloc((order + 1) * sizeof(npy_intp));
if (!data_offsets[jj]) {
PyErr_NoMemory();
goto exit;
}
}
/* will hold the spline coefficients: */
splvals = (double**)malloc(irank * sizeof(double*));
if (!splvals) {
PyErr_NoMemory();
goto exit;
}
for(jj = 0; jj < irank; jj++)
splvals[jj] = NULL;
for(jj = 0; jj < irank; jj++) {
splvals[jj] = (double*)malloc((order + 1) * sizeof(double));
if (!splvals[jj]) {
PyErr_NoMemory();
goto exit;
}
}
filter_size = 1;
for(jj = 0; jj < irank; jj++)
filter_size *= order + 1;
idxs = (npy_intp*)malloc(filter_size * sizeof(idxs));
if (!idxs) {
PyErr_NoMemory();
goto exit;
}
/* initialize output iterator: */
if (!NI_InitPointIterator(output, &io))
goto exit;
/* get data pointers: */
pi = (void *)PyArray_DATA(input);
po = (void *)PyArray_DATA(output);
/* make a table of all possible coordinates within the spline filter: */
fcoordinates = (npy_intp*)malloc(irank * filter_size * sizeof(npy_intp));
/* make a table of all offsets within the spline filter: */
foffsets = (npy_intp*)malloc(filter_size * sizeof(npy_intp));
if (!fcoordinates || !foffsets) {
PyErr_NoMemory();
goto exit;
}
for(jj = 0; jj < irank; jj++)
ftmp[jj] = 0;
kk = 0;
for(hh = 0; hh < filter_size; hh++) {
for(jj = 0; jj < irank; jj++)
fcoordinates[jj + hh * irank] = ftmp[jj];
foffsets[hh] = kk;
for(jj = irank - 1; jj >= 0; jj--) {
if (ftmp[jj] < order) {
ftmp[jj]++;
kk += istrides[jj];
break;
} else {
ftmp[jj] = 0;
kk -= istrides[jj] * order;
}
}
}
size = 1;
for(qq = 0; qq < output->nd; qq++)
size *= output->dimensions[qq];
for(kk = 0; kk < size; kk++) {
double t = 0.0;
int constant = 0, edge = 0, offset = 0;
if (map) {
/* call mappint functions: */
if (!map(io.coordinates, icoor, orank, irank, map_data)) {
if (!PyErr_Occurred())
PyErr_SetString(PyExc_RuntimeError,
"unknown error in mapping function");
goto exit;
}
} else if (matrix) {
/* do an affine transformation: */
Float64 *p = matrix;
for(hh = 0; hh < irank; hh++) {
icoor[hh] = 0.0;
for(ll = 0; ll < orank; ll++)
icoor[hh] += io.coordinates[ll] * *p++;
icoor[hh] += shift[hh];
}
} else if (coordinates) {
/* mapping is from an coordinates array: */
char *p = pc;
switch(coordinates->descr->type_num) {
CASE_MAP_COORDINATES(p, icoor, irank, cstride, Bool);
CASE_MAP_COORDINATES(p, icoor, irank, cstride, UInt8);
CASE_MAP_COORDINATES(p, icoor, irank, cstride, UInt16);
CASE_MAP_COORDINATES(p, icoor, irank, cstride, UInt32);
#if HAS_UINT64
CASE_MAP_COORDINATES(p, icoor, irank, cstride, UInt64);
#endif
CASE_MAP_COORDINATES(p, icoor, irank, cstride, Int8);
CASE_MAP_COORDINATES(p, icoor, irank, cstride, Int16);
CASE_MAP_COORDINATES(p, icoor, irank, cstride, Int32);
CASE_MAP_COORDINATES(p, icoor, irank, cstride, Int64);
CASE_MAP_COORDINATES(p, icoor, irank, cstride, Float32);
CASE_MAP_COORDINATES(p, icoor, irank, cstride, Float64);
default:
PyErr_SetString(PyExc_RuntimeError,
"coordinate array data type not supported");
goto exit;
}
}
/* iterate over axes: */
for(hh = 0; hh < irank; hh++) {
/* if the input coordinate is outside the borders, map it: */
double cc = map_coordinate(icoor[hh], idimensions[hh], mode);
if (cc > -1.0) {
/* find the filter location along this axis: */
int start;
if (order & 1) {
start = (int)floor(cc) - order / 2;
} else {
start = (int)floor(cc + 0.5) - order / 2;
}
/* get the offset to the start of the filter: */
offset += istrides[hh] * start;
if (start < 0 || start + order >= idimensions[hh]) {
/* implement border mapping, if outside border: */
edge = 1;
edge_offsets[hh] = data_offsets[hh];
for(ll = 0; ll <= order; ll++) {
int idx = start + ll;
int len = idimensions[hh];
if (len <= 1) {
idx = 0;
} else {
int s2 = 2 * len - 2;
if (idx < 0) {
idx = s2 * (int)(-idx / s2) + idx;
idx = idx <= 1 - len ? idx + s2 : -idx;
} else if (idx >= len) {
idx -= s2 * (int)(idx / s2);
if (idx >= len)
idx = s2 - idx;
}
}
/* calculate and store the offests at this edge: */
edge_offsets[hh][ll] = istrides[hh] * (idx - start);
}
} else {
/* we are not at the border, use precalculated offsets: */
edge_offsets[hh] = NULL;
}
spline_coefficients(cc, order, splvals[hh]);
} else {
/* we use the constant border condition: */
constant = 1;
break;
}
}
if (!constant) {
npy_intp *ff = fcoordinates;
for(hh = 0; hh < filter_size; hh++) {
int idx = 0;
if (edge) {
for(ll = 0; ll < irank; ll++) {
if (edge_offsets[ll])
idx += edge_offsets[ll][ff[ll]];
else
idx += ff[ll] * istrides[ll];
}
} else {
idx = foffsets[hh];
}
idx += offset;
idxs[hh] = idx;
ff += irank;
}
}
if (!constant) {
npy_intp *ff = fcoordinates;
t = 0.0;
for(hh = 0; hh < filter_size; hh++) {
double coeff = 0.0;
switch(input->descr->type_num) {
CASE_INTERP_COEFF(coeff, pi, idxs[hh], Bool);
CASE_INTERP_COEFF(coeff, pi, idxs[hh], UInt8);
CASE_INTERP_COEFF(coeff, pi, idxs[hh], UInt16);
CASE_INTERP_COEFF(coeff, pi, idxs[hh], UInt32);
#if HAS_UINT64
CASE_INTERP_COEFF(coeff, pi, idxs[hh], UInt64);
#endif
CASE_INTERP_COEFF(coeff, pi, idxs[hh], Int8);
CASE_INTERP_COEFF(coeff, pi, idxs[hh], Int16);
CASE_INTERP_COEFF(coeff, pi, idxs[hh], Int32);
CASE_INTERP_COEFF(coeff, pi, idxs[hh], Int64);
CASE_INTERP_COEFF(coeff, pi, idxs[hh], Float32);
CASE_INTERP_COEFF(coeff, pi, idxs[hh], Float64);
default:
PyErr_SetString(PyExc_RuntimeError,
"data type not supported");
goto exit;
}
/* calculate the interpolated value: */
for(ll = 0; ll < irank; ll++)
if (order > 0)
coeff *= splvals[ll][ff[ll]];
t += coeff;
ff += irank;
}
} else {
t = cval;
}
/* store output value: */
switch (output->descr->type_num) {
CASE_INTERP_OUT(po, t, Bool);
CASE_INTERP_OUT_UINT(po, t, UInt8, 0, MAX_UINT8);
CASE_INTERP_OUT_UINT(po, t, UInt16, 0, MAX_UINT16);
CASE_INTERP_OUT_UINT(po, t, UInt32, 0, MAX_UINT32);
#if HAS_UINT64
/* FIXME */
CASE_INTERP_OUT_UINT(po, t, UInt64, 0, MAX_UINT32);
#endif
CASE_INTERP_OUT_INT(po, t, Int8, MIN_INT8, MAX_INT8);
CASE_INTERP_OUT_INT(po, t, Int16, MIN_INT16, MAX_INT16);
CASE_INTERP_OUT_INT(po, t, Int32, MIN_INT32, MAX_INT32);
CASE_INTERP_OUT_INT(po, t, Int64, MIN_INT64, MAX_INT64);
CASE_INTERP_OUT(po, t, Float32);
CASE_INTERP_OUT(po, t, Float64);
default:
PyErr_SetString(PyExc_RuntimeError, "data type not supported");
goto exit;
}
if (coordinates) {
NI_ITERATOR_NEXT2(io, ic, po, pc);
} else {
NI_ITERATOR_NEXT(io, po);
}
}
exit:
if (edge_offsets)
free(edge_offsets);
if (data_offsets) {
for(jj = 0; jj < irank; jj++)
free(data_offsets[jj]);
free(data_offsets);
}
if (splvals) {
for(jj = 0; jj < irank; jj++)
free(splvals[jj]);
free(splvals);
}
if (foffsets)
free(foffsets);
if (fcoordinates)
free(fcoordinates);
if (idxs)
free(idxs);
return PyErr_Occurred() ? 0 : 1;
}