dyv *mk_dyv_read( PFILE *f)
{
int i, size, lineno;
double val;
char line[101];
dyv *dv;
lineno = 1;
line[100] = '\0';
/* Read size and make dyv. */
if (pfeof(f)) {
my_errorf( "mk_dyv_read: unexpected end-of-file while reading size,\n"
"after line %d of file", lineno);
}
if (pfgets( line, 100, f) == NULL) {
my_errorf( "mk_dyv_read: failed to read line %d from the passed stream.",
lineno);
}
else lineno++;
size = atoi( line);
dv = mk_dyv( size);
/* Read values. */
for (i=0; i<size; ++i) {
if (pfeof(f)) {
my_errorf( "mk_dyv_read: unexpected end-of-file while reading %d vals,\n"
"after line %d of file (after the %dth value)",
size, lineno, lineno-1);
}
if (pfgets( line, 100, f) == NULL) {
my_errorf( "mk_dyv_read: failed to read line %d from the passed stream.",
lineno);
}
else lineno++;
val = atof( line);
dyv_set( dv, i, val);
}
return dv;
}
//parses the input file, runs phoneme tests and produces output to be parsed by perl script
void doInputTestPhonemes(SR_Vocabulary *vocab, PFile* fin, FILE* fout)
{
#if 0
//waste of space with all of these arrays, they are too large, but leave for now
ESR_ReturnCode rc;
LCHAR line[2 * MAX_PRONS_LENGTH];
LCHAR phoneme[MAX_PRONS_LENGTH];
LCHAR* phrase;
LCHAR* expectedPhoneme;
LCHAR** tokenArray;
size_t len;
//read through the test file parsing it into the variables
while(!pfeof(fin))
{
pfgets(line, MAX_LINE_LENGTH, fin);
rc = ESR_ProcessLinearToCommandLineTokens(line, &tokenArray, &len);
if (rc!=ESR_SUCCESS || len!=2)
{
LFPRINTF(fout, "ERROR: INVALID FORMAT for input line\n");
continue;
}
phrase = tokenArray[0];
expectedPhoneme = tokenArray[1];
LPRINTF( "expected %s\n", expectedPhoneme);
len = MAX_PRONS_LENGTH;
rc = vocab->getPronunciation(vocab, phrase, phoneme, &len);
if(rc != ESR_SUCCESS)
LFPRINTF(fout,"ERROR: %s\n", ESR_rc2str(rc));
else
{
LFPRINTF(fout,"%s|%s|%s|", phrase, expectedPhoneme, phoneme);
if(LSTRCMP(expectedPhoneme, phoneme) == 0)
LFPRINTF(fout,"PASSED\n");
else
LFPRINTF(fout,"FAILED\n");
}
}
#endif
}
bool PStreamFile::isEndOfStream()
{
return pfeof(m_file);
}
int init_newton_transform(preprocessed *prep, float reqscale,
char *filename, int dimen)
/*
*/
{
int ii, jj;
unsigned short matdim;
double scale, onerow[MAX_DIMEN];
PFile* dfpt;
long foffset;
double xfp;
/* Open file
*/
ASSERT(prep);
ASSERT(filename);
dfpt = file_must_open(NULL, filename, ("rb"), ESR_TRUE);
prep->post_proc |= LIN_TRAN;
prep->use_dim = dimen;
pfread(&matdim, sizeof(short), 1, dfpt);
if (matdim > MAX_DIMEN)
SERVICE_ERROR(BAD_IMELDA);
create_linear_transform(prep, matdim, 1);
pfread(&scale, sizeof(double), 1, dfpt);
if (reqscale != 0) scale = reqscale;
#if DEBUG
PLogMessage("L: LDA Suggested scale is %.1f\n", scale);
#endif
if (!prep->dim) prep->dim = matdim;
else if (prep->dim != matdim)
{
log_report("Data (%d) and LDA (%d) dimensions don't match\n",
prep->dim, matdim);
SERVICE_ERROR(BAD_IMELDA);
}
/* Eigenvalues, ignored
*/
pfread(onerow, sizeof(double), matdim, dfpt);
/* Translation Vector
*/
pfread(onerow, sizeof(double), matdim, dfpt);
for (ii = 0; ii < matdim; ii++)
{
xfp = scale * (onerow[ii] - UTB_MEAN) + UTB_MEAN;
if (xfp > 0.0)
xfp += 0.5;
else if (xfp < 0.0)
xfp -= 0.5;
prep->offset[ii] = (imeldata) xfp;
}
/* The imelda matrix
*/
for (ii = 0; ii < matdim; ii++)
{
pfread(onerow, sizeof(double), matdim, dfpt);
for (jj = 0; jj < matdim; jj++)
prep->imelda[ii][jj] = (covdata)(scale * onerow[jj]);
}
prep->imel_shift = scale_matrix_for_fixedpoint(prep->matrix,
prep->imelda, matdim);
/* The inverse imelda matrix
*/
foffset = pftell(dfpt);
pfread(onerow, sizeof(double), matdim, dfpt);
if (pfeof(dfpt) != 0)
{
#ifdef SREC_ENGINE_VERBOSE_LOGGING
PLogMessage("W: Inverting imelda matrix");
#endif
invert_matrix(prep->imelda, prep->inverse, prep->dim);
}
else
{
pfseek(dfpt, foffset, SEEK_SET);
for (ii = 0; ii < matdim; ii++)
{
pfread(onerow, sizeof(double), matdim, dfpt);
for (jj = 0; jj < matdim; jj++)
prep->inverse[ii][jj] = (covdata)(onerow[jj] / scale);
}
}
prep->inv_shift = scale_matrix_for_fixedpoint(prep->invmat,
prep->inverse, matdim);
pfclose(dfpt);
return (0);
}
