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/*
* DOES NOT WORK. probably because it is not compiled with the
* rest of the libary
* A modified version of the library function Mat_VarPrint2
* This allows to choose the number of columns and rows to
* be printed
*/
/** @brief Prints the variable information
*
* Prints to stdout the values of the @ref matvar_t structure
* @ingroup MAT
* @param matvar Pointer to the matvar_t structure
* @param printdata set to 1 if the Variables data should be printed, else 0
*/
void
Mat_VarPrint2( matvar_t *matvar, int printdata, int max_cols, int max_rows )
{
size_t nmemb;
int i, j;
const char *class_type_desc[16] = {"Undefined","Cell Array","Structure",
"Object","Character Array","Sparse Array","Double Precision Array",
"Single Precision Array", "8-bit, signed integer array",
"8-bit, unsigned integer array","16-bit, signed integer array",
"16-bit, unsigned integer array","32-bit, signed integer array",
"32-bit, unsigned integer array","64-bit, signed integer array",
"64-bit, unsigned integer array"};
const char *data_type_desc[23] = {"Unknown","8-bit, signed integer",
"8-bit, unsigned integer","16-bit, signed integer",
"16-bit, unsigned integer","32-bit, signed integer",
"32-bit, unsigned integer","IEEE 754 single-precision","RESERVED",
"IEEE 754 double-precision","RESERVED","RESERVED",
"64-bit, signed integer","64-bit, unsigned integer", "Matlab Array",
"Compressed Data","Unicode UTF-8 Encoded Character Data",
"Unicode UTF-16 Encoded Character Data",
"Unicode UTF-32 Encoded Character Data","","String","Cell Array",
"Structure"};
if ( matvar == NULL )
return;
if ( matvar->name )
printf(" Name: %s\n", matvar->name);
printf(" Rank: %d\n", matvar->rank);
if ( matvar->rank == 0 )
return;
printf("Dimensions: %zu",matvar->dims[0]);
nmemb = matvar->dims[0];
for ( i = 1; i < matvar->rank; i++ ) {
printf(" x %zu",matvar->dims[i]);
nmemb *= matvar->dims[i];
}
printf("\n");
printf("Class Type: %s",class_type_desc[matvar->class_type]);
if ( matvar->isComplex )
printf(" (complex)");
printf("\n");
if ( matvar->data_type )
printf(" Data Type: %s\n", data_type_desc[matvar->data_type]);
if ( MAT_C_STRUCT == matvar->class_type ) {
matvar_t **fields = (matvar_t **)matvar->data;
int nfields = matvar->internal->num_fields;
if ( nmemb*nfields > 0 ) {
printf("Fields[%zu] {\n", nfields*nmemb);
for ( i = 0; i < nfields*nmemb; i++ ) {
if ( NULL == fields[i] ) {
printf(" Name: %s\n Rank: %d\n",
matvar->internal->fieldnames[i%nfields],0);
} else {
Mat_VarPrint(fields[i],printdata);
}
}
printf("}\n");
} else {
printf("Fields[%d] {\n", nfields);
for ( i = 0; i < nfields; i++ )
printf(" Name: %s\n Rank: %d\n",
matvar->internal->fieldnames[i],0);
printf("}\n");
}
return;
} else if ( matvar->data == NULL || matvar->data_size < 1 ) {
return;
} else if ( MAT_C_CELL == matvar->class_type ) {
matvar_t **cells = (matvar_t **)matvar->data;
int ncells = matvar->nbytes / matvar->data_size;
printf("{\n");
for ( i = 0; i < ncells; i++ )
Mat_VarPrint(cells[i],printdata);
printf("}\n");
return;
} else if ( !printdata ) {
return;
}
printf("{\n");
if ( matvar->rank > 2 ) {
printf("I can't print more than 2 dimensions\n");
} else if ( matvar->rank == 1 && matvar->dims[0] > max_rows ) {
printf("I won't print more than %d elements in a vector\n",max_rows);
} else if ( matvar->rank==2 ) {
switch( matvar->class_type ) {
case MAT_C_DOUBLE:
case MAT_C_SINGLE:
#ifdef HAVE_MAT_INT64_T
case MAT_C_INT64:
#endif
#ifdef HAVE_MAT_UINT64_T
case MAT_C_UINT64:
#endif
case MAT_C_INT32:
case MAT_C_UINT32:
case MAT_C_INT16:
case MAT_C_UINT16:
case MAT_C_INT8:
case MAT_C_UINT8:
{
size_t stride = Mat_SizeOf(matvar->data_type);
if ( matvar->isComplex ) {
mat_complex_split_t *complex_data = matvar->data;
char *rp = complex_data->Re;
char *ip = complex_data->Im;
for ( i = 0; i < matvar->dims[0] && i < max_rows; i++ ) {
for ( j = 0; j < matvar->dims[1] && j < max_cols; j++ ) {
size_t idx = matvar->dims[0]*j+i;
Mat_PrintNumber(matvar->data_type,rp+idx*stride);
printf(" + ");
Mat_PrintNumber(matvar->data_type,ip+idx*stride);
printf("i ");
}
if ( j < matvar->dims[1] )
printf("...");
printf("\n");
}
if ( i < matvar->dims[0] )
printf(".\n.\n.\n");
} else {
char *data = matvar->data;
for ( i = 0; i < matvar->dims[0] && i < max_rows; i++ ) {
for ( j = 0; j < matvar->dims[1] && j < max_cols; j++ ) {
size_t idx = matvar->dims[0]*j+i;
Mat_PrintNumber(matvar->data_type,
data+idx*stride);
printf(" ");
}
if ( j < matvar->dims[1] )
printf("...");
printf("\n");
}
if ( i < matvar->dims[0] )
printf(".\n.\n.\n");
}
break;
}
case MAT_C_CHAR:
{
char *data = matvar->data;
if ( !printdata )
break;
for ( i = 0; i < matvar->dims[0]; i++ ) {
j = 0;
for ( j = 0; j < matvar->dims[1]; j++ )
printf("%c",data[j*matvar->dims[0]+i]);
printf("\n");
}
break;
}
case MAT_C_SPARSE:
{
mat_sparse_t *sparse;
size_t stride = Mat_SizeOf(matvar->data_type);
#if !defined(EXTENDED_SPARSE)
if ( MAT_T_DOUBLE != matvar->data_type )
break;
#endif
sparse = matvar->data;
if ( matvar->isComplex ) {
mat_complex_split_t *complex_data = sparse->data;
char *re,*im;
re = complex_data->Re;
im = complex_data->Im;
for ( i = 0; i < sparse->njc-1; i++ ) {
for (j = sparse->jc[i];
j<sparse->jc[i+1] && j<sparse->ndata;j++ ) {
printf(" (%d,%d) ",sparse->ir[j]+1,i+1);
Mat_PrintNumber(matvar->data_type,re+j*stride);
printf(" + ");
Mat_PrintNumber(matvar->data_type,im+j*stride);
printf("i\n");
}
}
} else {
char *data;
data = sparse->data;
for ( i = 0; i < sparse->njc-1; i++ ) {
for (j = sparse->jc[i];
j<sparse->jc[i+1] && j<sparse->ndata;j++ ){
printf(" (%d,%d) ",sparse->ir[j]+1,i+1);
Mat_PrintNumber(matvar->data_type,data+j*stride);
printf("\n");
}
}
}
break;
} /* case MAT_C_SPARSE: */
} /* switch( matvar->class_type ) */
}
printf("}\n");
return;
}
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