/// <summary>
/// Performs stress assignment and related processing on a word, and adds it to the queue of produced segments.
/// </summary>
/// <param name="w">The word obtained from the segmentation step.</param>
void AddAndProcessWord(Word w)
{
if ((curSyl != null) && !w.Syllables.Contains(curSyl))
{
w.Syllables.Add(curSyl);
curSyl = null;
}
SyllablePattern?sp = w.PlaceStress(StressHeuristics, DefaultStress);
// Log(LogLevel.Debug, sp);
bool beforeStress = true;
foreach (Syllable syl in w.Syllables)
{
bool stressed = syl.IsStressed;
if (stressed)
{
beforeStress = false;
}
for (int i = 0; i < syl.Phonemes.Count; i++)
{
SpeechElement e = syl.Phonemes[i];
if (e is Vowel)
{
Vowel v = (Vowel)e;
if (v.vowel == Vowels.KamatzIndeterminate)
{
if (beforeStress && (syl.Coda == SyllableCoda.Closed) && (syl.Phonemes[syl.Phonemes.Count - 1] is Consonant) /*&& ((w.Tag&TagTypes.Origin)!=TagTypes.Foreign)*/ && !stressed)
{
v.vowel = Vowels.KamatzKatan;
}
else
{
v.vowel = Vowels.KamatzGadol;
}
}
else if (v.vowel == Vowels.AudibleSchwa)
{
if ((w.Tag & TagTypes.Origin) == TagTypes.Foreign)
{
v.vowel = Vowels.SilentSchwa;
}
else
{
int j = w.Phonemes.IndexOf(e);
if ((j + 1 < w.Phonemes.Count) &&
(w.Phonemes[j + 1] is Consonant) &&
(j - 1 >= 0) &&
(w.Phonemes[j - 1] is Consonant) &&
(w.Phonemes[j + 1].Latin != w.Phonemes[j - 1].Latin))
{
switch (w.Phonemes[j - 1].Latin)
{
/* case "k":
* case "l":
* case "b":
* case "m":
* break;*/
case Consonants.Vav:
case Consonants.Lamed:
break;
default:
if (!relaxAudibleSchwa)
{
break;
}
int son = ((Consonant)w.Phonemes[j + 1]).Sonority -
((Consonant)w.Phonemes[j - 1]).Sonority;
if (son >= 0)
{
v.Silent = true;
}
break;
}
}
}
}
}
}
}
if (sp != null)
{
Log(LogLevel.Info, "/{0}/ from pattern {1}", w.TranslitSyllablesStress, sp.ToString());
}
else
{
Log(LogLevel.Info, "/{0}/", w.TranslitSyllablesStress);
}
Emit(w);
}
void AddAndProcessWord(Word w)
{
if ((curSyl != null) && !w.Syllables.Contains(curSyl))
{
w.Syllables.Add(curSyl);
curSyl = null;
}
Console.WriteLine("segmenter: /{0}/", w.TranslitSyllables);
w.PlaceStress(StressHeuristics, DefaultStress);
foreach (Syllable syl in w.Syllables)
{
bool stressed = syl.IsStressed;
for (int i = 0; i < syl.Phonemes.Count; i++)
{
SpeechElement e = syl.Phonemes[i];
if (e is Vowel)
{
Vowel v = (Vowel)e;
if (v.vowel == Vowels.KamatzIndeterminate)
{
if ((syl.Coda == SyllableCoda.Closed) && (syl.Phonemes[syl.Phonemes.Count - 1] is Consonant) /*&& ((w.Tag&TagTypes.Origin)!=TagTypes.Foreign)*/ && !stressed)
{
v.vowel = Vowels.KamatzKatan;
}
else
{
v.vowel = Vowels.KamatzGadol;
}
// Log.Analyzer.WriteLine("Kamatz determined to be "+v.vowel.ToString());
}
else if (v.vowel == Vowels.AudibleSchwa)
{
if ((w.Tag & TagTypes.Origin) == TagTypes.Foreign)
{
v.vowel = Vowels.SilentSchwa;
}
else
{
int j = w.Phonemes.IndexOf(e);
if ((j + 1 < w.Phonemes.Count) &&
(w.Phonemes[j + 1] is Consonant) &&
(j - 1 >= 0) &&
(w.Phonemes[j - 1] is Consonant) &&
(w.Phonemes[j + 1].Latin != w.Phonemes[j - 1].Latin))
{
switch (w.Phonemes[j - 1].Latin)
{
/* case "k":
* case "l":
* case "b":
* case "m":
* break;*/
case Consonants.Vav:
case Consonants.Lamed:
break;
default:
if (!relaxAudibleSchwa)
{
break;
}
int son = ((Consonant)w.Phonemes[j + 1]).Sonority -
((Consonant)w.Phonemes[j - 1]).Sonority;
if (son >= 0)
{
v.Silent = true;
}
break;
}
}
}
}
}
}
}
Emit(w);
}