static ClosedContour ClosedContour_create (int numberOfPoints) {
ClosedContour result = Melder_calloc (structClosedContour, 1);
result -> numberOfPoints = numberOfPoints;
result -> x = NUMvector <double> (1, 2 * numberOfPoints);
result -> y = result -> x + numberOfPoints;
return result; // LEAK
}
void SpellingChecker_addNewWord (SpellingChecker me, const char32 *word) {
try {
autostring32 generic = Melder_calloc (char32, 3 * str32len (word) + 1);
Longchar_genericize32 (word, generic.peek());
my userDictionary -> addString_copy (generic.transfer());
} catch (MelderError) {
Melder_throw (me, U": word \"", word, U"\" not added.");
}
}
void SpellingChecker_addNewWord (SpellingChecker me, const char32 *word) {
try {
if (! my userDictionary)
my userDictionary = SortedSetOfString_create ();
autostring32 generic = Melder_calloc (char32, 3 * str32len (word) + 1);
Longchar_genericize32 (word, generic.peek());
SortedSetOfString_addString (my userDictionary, generic.transfer());
} catch (MelderError) {
Melder_throw (me, U": word \"", word, U"\" not added.");
}
}
void Graphics_grey (Graphics me, double **z,
long ix1, long ix2, double x1WC, double x2WC,
long iy1, long iy2, double y1WC, double y2WC,
int _numberOfBorders, double borders [])
{
if (ix2 <= ix1 || iy2 <= iy1) return;
/* Static variables. */
theGraphics = me;
numberOfBorders = _numberOfBorders;
data = z;
border = borders;
dx = (x2WC - x1WC) / (ix2 - ix1);
dy = (y2WC - y1WC) / (iy2 - iy1);
xoff = x1WC - ix1 * dx;
yoff = y1WC - iy1 * dy;
if (! right) {
right = NUMmatrix <int> (0, MAXGREYSIDE - 1, 0, MAXGREYSIDE - 1); // BUG memory
below = NUMmatrix <int> (0, MAXGREYSIDE - 1, 0, MAXGREYSIDE - 1);
x = NUMvector <double> (1, MAXGREYPATH);
y = NUMvector <double> (1, MAXGREYPATH);
edgeContours = Melder_calloc (EdgeContour, MAXGREYEDGECONTOURS * numberOfBorders) - 1;
closedContours = Melder_calloc (ClosedContour, MAXGREYCLOSEDCONTOURS * numberOfBorders) - 1;
edgePoints = Melder_calloc (structEdgePoint, MAXGREYEDGEPOINTS * numberOfBorders);
}
/* The matrix is subdivided into matrices with side MAXGREYSIDE, so that:
* 1. All the paths will fit into our memory (we have to remember them all).
* 2. The path for filling fits into the PostScript path, which may be max. 1500 points long.
*/
for (row1 = iy1; row1 < iy2; row1 += MAXGREYSIDE - 1) {
row2 = row1 + (MAXGREYSIDE - 1);
if (row2 > iy2) row2 = iy2;
for (col1 = ix1; col1 < ix2; col1 += MAXGREYSIDE - 1) {
col2 = col1 + (MAXGREYSIDE - 1);
if (col2 > ix2) col2 = ix2;
smallGrey ();
}
}
}
void Strings_nativize (Strings me) {
autostring32 buffer = Melder_calloc (char32, Strings_maximumLength (me) + 1);
for (long i = 1; i <= my numberOfStrings; i ++) {
Longchar_nativize32 (my strings [i], buffer.peek(), false);
autostring32 newString = Melder_dup (buffer.peek());
/*
* Replace string only if copying was OK.
*/
Melder_free (my strings [i]);
my strings [i] = newString.transfer();
}
}
NUMlinprog NUMlinprog_new (bool maximize) {
NUMlinprog me = nullptr;
try {
me = Melder_calloc (structNUMlinprog, 1);
my linearProgram = glp_create_prob (); // TODO: check
glp_set_obj_dir (my linearProgram, maximize ? GLP_MAX : GLP_MIN);
} catch (MelderError) {
if (me) NUMlinprog_delete (me);
return NULL;
}
return me;
}
void structWordList :: v_readBinary (FILE *f) {
wchar *current, *p;
int kar = 0;
length = bingeti4 (f);
if (length < 0)
Melder_throw ("Wrong length ", length, ".");
string = Melder_calloc (wchar, length + 1);
p = current = string;
if (length > 0) {
/*
* Read first word.
*/
for (;;) {
if (p - string >= length - 1) break;
kar = fgetc (f);
if (kar == EOF)
Melder_throw (L"Early end of file.");
if (kar >= 128) break;
*p ++ = kar;
}
*p ++ = '\n';
/*
* Read following words.
*/
for (;;) {
wchar *previous = current;
int numberOfSame = kar - 128;
current = p;
wcsncpy (current, previous, numberOfSame);
p += numberOfSame;
for (;;) {
if (p - string >= length - 1) break;
kar = fgetc (f);
if (kar == EOF)
Melder_throw (L"Early end of file.");
if (kar >= 128) break;
*p ++ = kar;
}
*p ++ = '\n';
if (p - string >= length) break;
}
}
*p = '\0';
if (p - string != length)
Melder_throw ("Length in header (", length, ") does not match lenth of string (", (long) (p - string), ").");
}
void Strings_genericize (Strings me) {
autostring32 buffer = Melder_calloc (char32, Strings_maximumLength (me) * 3 + 1);
for (long i = 1; i <= my numberOfStrings; i ++) {
const char32 *p = (const char32 *) my strings [i];
while (*p) {
if (*p > 126) { // backslashes are not converted, i.e. genericize^2 == genericize
Longchar_genericize32 (my strings [i], buffer.peek());
autostring32 newString = Melder_dup (buffer.peek());
/*
* Replace string only if copying was OK.
*/
Melder_free (my strings [i]);
my strings [i] = newString.transfer();
break;
}
p ++;
}
}
}
Strings WordList_to_Strings (WordList me) {
try {
unsigned char *word = (unsigned char *) my string;
autoStrings thee = Thing_new (Strings);
thy numberOfStrings = WordList_count (me);
if (thy numberOfStrings > 0) {
thy strings = NUMvector <wchar *> (1, thy numberOfStrings);
}
for (long i = 1; i <= thy numberOfStrings; i ++) {
unsigned char *kar = word;
for (; *kar != '\n'; kar ++) { }
long length = kar - word;
thy strings [i] = Melder_calloc (wchar, length + 1);
wcsncpy (thy strings [i], Melder_peekUtf8ToWcs ((const char *) word), length);
thy strings [i] [length] = '\0';
word += length + 1;
}
return thee.transfer();
} catch (MelderError) {
Melder_throw (me, ": not converted to Strings.");
}
}
void _CollectionOfDaata_v_copy (_CollectionOfDaata* me, _CollectionOfDaata* thee) {
thy at._elements = nullptr; // set to null in case the inherited v_copy crashes
my structDaata :: v_copy (thee);
thy _ownershipInitialized = my _ownershipInitialized;
thy _ownItems = my _ownItems;
thy _capacity = my _capacity;
thy size = my size;
if (my _capacity > 0) {
thy at._elements = Melder_calloc (Daata, my _capacity); // filled with null pointers
thy at._elements --; // immediately turn from base-0 into base-1 // BUG use NUMvector
}
for (long i = 1; i <= my size; i ++) {
Daata itempie = my at [i];
if (my _ownItems) {
if (! Thing_isa (itempie, classDaata))
Melder_throw (U"Cannot copy item of class ", Thing_className (itempie), U".");
thy at [i] = Data_copy (itempie).releaseToAmbiguousOwner();
} else {
thy at [i] = itempie; // reference copy: if me doesn't own the items, then thee shouldn't either // NOTE: the items don't have to be Daata
}
}
}
WordList Strings_to_WordList (Strings me) {
try {
long totalLength = 0;
/*
* Check whether the strings are generic and sorted.
*/
for (long i = 1; i <= my numberOfStrings; i ++) {
wchar *string = my strings [i], *p;
for (p = & string [0]; *p; p ++) {
if (*p > 126)
Melder_throw ("String \"", string, "\" not generic.\nPlease convert to backslash trigraphs first.");
}
if (i > 1 && wcscmp (my strings [i - 1], string) > 0) {
Melder_throw ("String \"", string, L"\" not sorted.\nPlease sort first.");
}
totalLength += wcslen (string);
}
autoWordList thee = Thing_new (WordList);
thy length = totalLength + my numberOfStrings;
thy string = Melder_calloc (wchar, thy length + 1);
/*
* Concatenate the strings into the word list.
*/
wchar *q = thy string;
for (long i = 1; i <= my numberOfStrings; i ++) {
long length = wcslen (my strings [i]);
wcscpy (q, my strings [i]);
q += length;
*q ++ = '\n';
}
*q = '\0';
Melder_assert (q - thy string == thy length);
return thee.transfer();
} catch (MelderError) {
Melder_throw (me, ": not converted to WordList.");
}
}
void LongSound_playPart (LongSound me, double tmin, double tmax,
Sound_PlayCallback callback, Thing boss)
{
struct LongSoundPlay *thee = (struct LongSoundPlay *) & thePlayingLongSound;
MelderAudio_stopPlaying (MelderAudio_IMPLICIT);
Melder_free (thy resampledBuffer); // just in case, and after playing has stopped
try {
int fits = LongSound_haveWindow (me, tmin, tmax);
long bestSampleRate = MelderAudio_getOutputBestSampleRate (my sampleRate), n, i1, i2;
if (! fits)
Melder_throw (U"Sound too long (", tmax - tmin, U" seconds).");
/*
* Assign to *thee only after stopping the playing sound.
*/
thy tmin = tmin;
thy tmax = tmax;
thy callback = callback;
thy boss = boss;
if ((n = Sampled_getWindowSamples (me, tmin, tmax, & i1, & i2)) < 2) return;
if (bestSampleRate == my sampleRate) {
thy numberOfSamples = n;
thy dt = 1 / my sampleRate;
thy t1 = my x1;
thy i1 = i1;
thy i2 = i2;
thy silenceBefore = (long) (my sampleRate * MelderAudio_getOutputSilenceBefore ());
thy silenceAfter = (long) (my sampleRate * MelderAudio_getOutputSilenceAfter ());
if (thy callback) thy callback (thy boss, 1, tmin, tmax, tmin);
if (thy silenceBefore > 0 || thy silenceAfter > 0 || 1) {
thy resampledBuffer = Melder_calloc (int16, (thy silenceBefore + thy numberOfSamples + thy silenceAfter) * my numberOfChannels);
memcpy (& thy resampledBuffer [thy silenceBefore * my numberOfChannels], & my buffer [(i1 - my imin) * my numberOfChannels],
thy numberOfSamples * sizeof (int16) * my numberOfChannels);
MelderAudio_play16 (thy resampledBuffer, my sampleRate, thy silenceBefore + thy numberOfSamples + thy silenceAfter,
my numberOfChannels, melderPlayCallback, thee);
} else {
MelderAudio_play16 (my buffer + (i1 - my imin) * my numberOfChannels, my sampleRate,
thy numberOfSamples, my numberOfChannels, melderPlayCallback, thee);
}
} else {
long newSampleRate = bestSampleRate;
long newN = ((double) n * newSampleRate) / my sampleRate - 1;
long silenceBefore = (long) (newSampleRate * MelderAudio_getOutputSilenceBefore ());
long silenceAfter = (long) (newSampleRate * MelderAudio_getOutputSilenceAfter ());
int16 *resampledBuffer = Melder_calloc (int16, (silenceBefore + newN + silenceAfter) * my numberOfChannels);
int16 *from = my buffer + (i1 - my imin) * my numberOfChannels; // guaranteed: from [0 .. (my imax - my imin + 1) * nchan]
double t1 = my x1, dt = 1.0 / newSampleRate;
thy numberOfSamples = newN;
thy dt = dt;
thy t1 = t1 + i1 / my sampleRate;
thy i1 = 0;
thy i2 = newN - 1;
thy silenceBefore = silenceBefore;
thy silenceAfter = silenceAfter;
thy resampledBuffer = resampledBuffer;
if (my numberOfChannels == 1) {
for (long i = 0; i < newN; i ++) {
double t = t1 + i * dt; // from t1 to t1 + (newN-1) * dt
double index = (t - t1) * my sampleRate; // from 0
long flore = index; // DANGEROUS: Implicitly rounding down...
double fraction = index - flore;
resampledBuffer [i + silenceBefore] = (1.0 - fraction) * from [flore] + fraction * from [flore + 1];
}
} else if (my numberOfChannels == 2) {
for (long i = 0; i < newN; i ++) {
double t = t1 + i * dt;
double index = (t - t1) * my sampleRate;
long flore = index;
double fraction = index - flore;
long ii = i + silenceBefore;
resampledBuffer [ii + ii] = (1.0 - fraction) * from [flore + flore] + fraction * from [flore + flore + 2];
resampledBuffer [ii + ii + 1] = (1.0 - fraction) * from [flore + flore + 1] + fraction * from [flore + flore + 3];
}
} else {
for (long i = 0; i < newN; i ++) {
double t = t1 + i * dt;
double index = (t - t1) * my sampleRate;
long flore = index;
double fraction = index - flore;
long ii = (i + silenceBefore) * my numberOfChannels;
for (long chan = 0; chan < my numberOfChannels; chan ++) {
resampledBuffer [ii + chan] =
(1.0 - fraction) * from [flore * my numberOfChannels + chan] +
fraction * from [(flore + 1) * my numberOfChannels + chan];
}
}
}
if (thy callback) thy callback (thy boss, 1, tmin, tmax, tmin);
MelderAudio_play16 (resampledBuffer, newSampleRate, silenceBefore + newN + silenceAfter, my numberOfChannels, melderPlayCallback, thee);
}
//Melder_free (thy resampledBuffer); // cannot do that, because MelderAudio_play16 isn't necessarily synchronous
} catch (MelderError) {
Melder_free (thy resampledBuffer);
Melder_throw (me, U": not played.");
}
}
