C++ HTS_error函数代码示例

/* HTS_Stream_load_pdf_and_tree: load PDFs and trees */
static void HTS_Stream_load_pdf_and_tree(HTS_Stream * stream, FILE ** pdf_fp,
                                         FILE ** tree_fp, HTS_Boolean msd_flag,
                                         int interpolation_size)
{
   int i;

   /* initialize */
   stream->msd_flag = msd_flag;
   stream->interpolation_size = interpolation_size;
   stream->model =
       (HTS_Model *) HTS_calloc(interpolation_size, sizeof(HTS_Model));
   /* load */
   for (i = 0; i < stream->interpolation_size; i++) {
      if (!pdf_fp[i])
         HTS_error(1,
                   "HTS_Stream_load_pdf_and_tree: File for duration PDFs is not specified.\n");
      if (!tree_fp[i])
         HTS_error(1,
                   "HTS_Stream_load_pdf_and_tree: File for duration trees is not specified.\n");
      HTS_Model_initialize(&stream->model[i]);
      HTS_Model_load_tree(&stream->model[i], tree_fp[i]);
      HTS_Model_load_pdf(&stream->model[i], pdf_fp[i], stream->model[i].ntree,
                         stream->msd_flag);
   }
   /* check */
   for (i = 1; i < stream->interpolation_size; i++)
      if (stream->model[0].vector_length != stream->model[i].vector_length)
         HTS_error(1,
                   "HTS_Stream_load_pdf_and_tree: Vector sizes of state output vectors are different in between given modelsets.\n");
   /* set */
   stream->vector_length = stream->model[0].vector_length;
}

/* HTS_Audio_open: open audio device */
static void HTS_Audio_open(HTS_Audio * audio, int sampling_rate, int max_buff_size)
{
   if (audio->sampling_rate == sampling_rate && audio->max_buff_size == max_buff_size)
      return;

   HTS_Audio_close(audio);

   audio->sampling_rate = sampling_rate;
   audio->max_buff_size = max_buff_size;

   if (audio->max_buff_size <= 0)
      return;

   audio->err = Pa_Initialize();
   if (audio->err != paNoError)
      HTS_error(0, "hts_engine: Failed to initialize your output audio device to play waveform.\n");

   audio->parameters.device = Pa_GetDefaultOutputDevice();
   audio->parameters.channelCount = 1;
   audio->parameters.sampleFormat = paInt16;
   audio->parameters.suggestedLatency = Pa_GetDeviceInfo(audio->parameters.device)->defaultLowOutputLatency;
   audio->parameters.hostApiSpecificStreamInfo = NULL;

   audio->err = Pa_OpenStream(&audio->stream, NULL, &audio->parameters, sampling_rate, max_buff_size, paClipOff, NULL, NULL);
   if (audio->err != paNoError)
      HTS_error(0, "hts_engine: Failed to open your output audio device to play waveform.\n");

   audio->err = Pa_StartStream(audio->stream);
   if (audio->err != paNoError)
      HTS_error(0, "hts_engine: Failed to start your output audio device to play waveform.\n");

   audio->buff = (short *) HTS_calloc(max_buff_size, sizeof(short));
   audio->buff_size = 0;
}

/* HTS_ModelSet_load_parameter: load model */
void HTS_ModelSet_load_parameter(HTS_ModelSet * ms, FILE ** pdf_fp,
                                 FILE ** tree_fp, FILE ** win_fp,
                                 int stream_index, HTS_Boolean msd_flag,
                                 int window_size, int interpolation_size)
{
   int i;

   /* check */
   if (pdf_fp == NULL)
      HTS_error(1,
                "HTS_ModelSet_load_parameter: File for pdfs is not specified.\n");
   if (tree_fp == NULL)
      HTS_error(1,
                "HTS_ModelSet_load_parameter: File for wins is not specified.\n");
   if (win_fp == NULL)
      HTS_error(1,
                "HTS_ModelSet_load_parameter: File for wins is not specified.\n");
   /* initialize */
   if (!ms->stream) {
      ms->stream = (HTS_Stream *) HTS_calloc(ms->nstream, sizeof(HTS_Stream));
      for (i = 0; i < ms->nstream; i++)
         HTS_Stream_initialize(&ms->stream[i]);
   }
   /* load */
   HTS_Stream_load_pdf_and_tree(&ms->stream[stream_index], pdf_fp, tree_fp,
                                msd_flag, interpolation_size);
   HTS_Stream_load_dynamic_window(&ms->stream[stream_index], win_fp,
                                  window_size);
}

/* HTS_Audio_close: close audio device */
static void HTS_Audio_close(HTS_Audio * audio)
{
   MMRESULT error;

   if (audio->max_buff_size <= 0)
      return;

   /* stop audio */
   error = waveOutReset(audio->hwaveout);
   if (error != MMSYSERR_NOERROR)
      HTS_error(0, "hts_engine: Cannot stop and reset your output audio device.\n");
   /* unprepare */
   error = waveOutUnprepareHeader(audio->hwaveout, &(audio->buff_1), sizeof(WAVEHDR));
   if (error != MMSYSERR_NOERROR)
      HTS_error(0, "hts_engine: Cannot cleanup the audio datablocks to play waveform.\n");
   error = waveOutUnprepareHeader(audio->hwaveout, &(audio->buff_2), sizeof(WAVEHDR));
   if (error != MMSYSERR_NOERROR)
      HTS_error(0, "hts_engine: Cannot cleanup the audio datablocks to play waveform.\n");
   /* close */
   error = waveOutClose(audio->hwaveout);
   if (error != MMSYSERR_NOERROR)
      HTS_error(0, "hts_engine: Failed to close your output audio device.\n");
   HTS_free(audio->buff_1.lpData);
   HTS_free(audio->buff_2.lpData);
   HTS_free(audio->buff);
}

/* HTS_ModelSet_load_duration: load duration model and number of state */
HTS_Boolean HTS_ModelSet_load_duration(HTS_ModelSet * ms, HTS_File ** pdf_fp, HTS_File ** tree_fp, int interpolation_size)
{
   /* check */
   if (ms == NULL) {
      return FALSE;
   }
   if (interpolation_size <= 0) {
      HTS_ModelSet_clear(ms);
      return FALSE;
   }
   if (pdf_fp == NULL) {
      HTS_error(1, "HTS_ModelSet_load_duration: File for duration PDFs is not specified.\n");
      HTS_ModelSet_clear(ms);
      return FALSE;
   }
   if (tree_fp == NULL) {
      HTS_error(1, "HTS_ModelSet_load_duration: File for duration trees is not specified.\n");
      HTS_ModelSet_clear(ms);
      return FALSE;
   }

   if (HTS_Stream_load_pdf_and_tree(&ms->duration, pdf_fp, tree_fp, interpolation_size) == FALSE) {
      HTS_ModelSet_clear(ms);
      return FALSE;
   }
   ms->nstate = ms->duration.vector_length;

   return TRUE;
}

/* HTS_Audio_close: close audio device */
void HTS_Audio_close(HTS_Audio * as)
{
   MMRESULT error;

   if (as->buff_size != 0)
      HTS_Audio_write_buffer(as);
   while (as->now_buff_1 == TRUE)
      Sleep(AUDIO_WAIT_BUFF_MS);
   while (as->now_buff_2 == TRUE)
      Sleep(AUDIO_WAIT_BUFF_MS);
   /* stop audio */
   error = waveOutReset(as->hwaveout);
   if (error != MMSYSERR_NOERROR)
      HTS_error(0,
                "hts_engine: Cannot stop and reset your output audio device.\n");
   /* unprepare */
   error = waveOutUnprepareHeader(as->hwaveout, &(as->buff_1), sizeof(WAVEHDR));
   if (error != MMSYSERR_NOERROR)
      HTS_error(0,
                "hts_engine: Cannot cleanup the audio datablocks to play waveform.\n");
   error = waveOutUnprepareHeader(as->hwaveout, &(as->buff_2), sizeof(WAVEHDR));
   if (error != MMSYSERR_NOERROR)
      HTS_error(0,
                "hts_engine: Cannot cleanup the audio datablocks to play waveform.\n");
   /* close */
   error = waveOutClose(as->hwaveout);
   if (error != MMSYSERR_NOERROR)
      HTS_error(0, "hts_engine: Failed to close your output audio device.\n");
   HTS_free(as->buff_1.lpData);
   HTS_free(as->buff_2.lpData);
   HTS_free(as->buff);
}

/* HTS_Model_load_tree: load trees */
static void HTS_Model_load_tree(HTS_Model * model, FILE * fp)
{
   char buff[HTS_MAXBUFLEN];
   HTS_Question *question, *last_question;
   HTS_Tree *tree, *last_tree;
   int state;

   /* check */
   if (fp == NULL)
      HTS_error(1, "HTS_Model_load_tree: File for trees is not specified.\n");

   model->ntree = 0;
   last_question = NULL;
   last_tree = NULL;
   while (!feof(fp)) {
      HTS_get_pattern_token(fp, buff);
      /* parse questions */
      if (strcmp(buff, "QS") == 0) {
         question = (HTS_Question *) HTS_calloc(1, sizeof(HTS_Question));
         HTS_Question_load(question, fp);
         if (model->question)
            last_question->next = question;
         else
            model->question = question;
         question->next = NULL;
         last_question = question;
      }
      /* parse trees */
      state = HTS_get_state_num(buff);
      if (state != 0) {
         tree = (HTS_Tree *) HTS_calloc(1, sizeof(HTS_Tree));
         tree->next = NULL;
         tree->root = NULL;
         tree->head = NULL;
         tree->state = state;
         HTS_Tree_parse_pattern(tree, buff);
         HTS_Tree_load(tree, fp, model->question);
         if (model->tree)
            last_tree->next = tree;
         else
            model->tree = tree;
         tree->next = NULL;
         last_tree = tree;
         model->ntree++;
      }
   }
   /* No Tree information in tree file */
   if (model->tree == NULL)
      HTS_error(1, "HTS_Model_load_tree: No trees are loaded.\n");
}

/* HTS_ModelSet_load_duration: load duration model and number of state */
void HTS_ModelSet_load_duration(HTS_ModelSet * ms, FILE ** pdf_fp,
                                FILE ** tree_fp, int interpolation_size)
{
   /* check */
   if (pdf_fp == NULL)
      HTS_error(1,
                "HTS_ModelSet_load_duration: File for duration PDFs is not specified.\n");
   if (tree_fp == NULL)
      HTS_error(1,
                "HTS_ModelSet_load_duration: File for duration trees is not specified.\n");

   HTS_Stream_load_pdf_and_tree(&ms->duration, pdf_fp, tree_fp, FALSE,
                                interpolation_size);
   ms->nstate = ms->duration.vector_length;
}

/* HTS_Stream_load_pdf: load pdf */
static HTS_Boolean HTS_Stream_load_pdf(HTS_Stream * stream, HTS_File ** fp, int ntree, int interpolation_size)
{
   int i;
   HTS_Boolean result = TRUE;

   /* initialize */
   stream->interpolation_size = interpolation_size;
   stream->model = (HTS_Model *) HTS_calloc(interpolation_size, sizeof(HTS_Model));
   /* load pdfs */
   for (i = 0; i < stream->interpolation_size; i++) {
      HTS_Model_initialize(&stream->model[i]);
      if (HTS_Model_load_pdf(&stream->model[i], fp[i], ntree, &stream->msd_flag) == FALSE)
         result = FALSE;
   }
   if (result == FALSE) {
      HTS_Stream_clear(stream);
      return FALSE;
   }
   /* check */
   for (i = 1; i < stream->interpolation_size; i++) {
      if (stream->model[0].vector_length != stream->model[1].vector_length) {
         HTS_error(1, "HTS_Stream_load_pdf: # of states are different in between given modelsets.\n");
         HTS_Stream_clear(stream);
         return FALSE;
      }
   }
   /* set */
   stream->vector_length = stream->model[0].vector_length;

   return TRUE;
}

/* HTS_ModelSet_get_gv_switch_index: get index of GV switch tree and PDF */
void HTS_ModelSet_get_gv_switch_index(HTS_ModelSet * ms, char *string, int *tree_index, int *pdf_index)
{
   HTS_Tree *tree;
   HTS_Pattern *pattern;
   HTS_Boolean find;

   find = FALSE;
   (*tree_index) = 2;
   (*pdf_index) = 1;
   for (tree = ms->gv_switch.tree; tree; tree = tree->next) {
      pattern = tree->head;
      if (!pattern)
         find = TRUE;
      for (; pattern; pattern = pattern->next)
         if (HTS_pattern_match(string, pattern->string)) {
            find = TRUE;
            break;
         }
      if (find)
         break;
      (*tree_index)++;
   }

   if (tree == NULL) {
      HTS_error(1, "HTS_ModelSet_get_gv_switch_index: Cannot find model %s.\n", string);
      return;
   }
   (*pdf_index) = HTS_Tree_search_node(tree, string);
}

/* HTS_Audio_write_buffer: send buffer to audio device */
static void HTS_Audio_write_buffer(HTS_Audio * audio)
{
   MMRESULT error;

   if (audio->which_buff == 1) {
      while (audio->now_buff_1 == TRUE)
         Sleep(AUDIO_WAIT_BUFF_MS);
      audio->now_buff_1 = TRUE;
      audio->which_buff = 2;
      memcpy(audio->buff_1.lpData, audio->buff, audio->buff_size * sizeof(short));
      audio->buff_1.dwBufferLength = audio->buff_size * sizeof(short);
      error = waveOutWrite(audio->hwaveout, &(audio->buff_1), sizeof(WAVEHDR));
   } else {
      while (audio->now_buff_2 == TRUE)
         Sleep(AUDIO_WAIT_BUFF_MS);
      audio->now_buff_2 = TRUE;
      audio->which_buff = 1;
      memcpy(audio->buff_2.lpData, audio->buff, audio->buff_size * sizeof(short));
      audio->buff_2.dwBufferLength = audio->buff_size * sizeof(short);
      error = waveOutWrite(audio->hwaveout, &(audio->buff_2), sizeof(WAVEHDR));
   }

   if (error != MMSYSERR_NOERROR)
      HTS_error(0, "hts_engine: Cannot send datablocks to your output audio device to play waveform.\n");
}

/* HTS_fread: wrapper for fread */
static size_t HTS_fread(void *buf, size_t size, size_t n, HTS_File * fp)
{
   if (fp == NULL || size == 0 || n == 0) {
      return 0;
   }
   if (fp->type == HTS_FILE) {
      return fread(buf, size, n, (FILE *) fp->pointer);
   } else if (fp->type == HTS_DATA) {
      HTS_Data *d = (HTS_Data *) fp->pointer;
      size_t i, length = size * n;
      unsigned char *c = (unsigned char *) buf;
      for (i = 0; i < length; i++) {
         if (d->index < d->size)
            c[i] = d->data[d->index++];
         else
            break;
      }
      if (i == 0)
         return 0;
      else
         return i / size;
   }
   HTS_error(0, "HTS_fread: Unknown file type.\n");
   return 0;
}

/* HTS_ModelSet_get_parameter_index: get index of parameter tree and PDF */
void HTS_ModelSet_get_parameter_index(HTS_ModelSet * ms, char *string,
                                      int *tree_index, int *pdf_index,
                                      int stream_index, int state_index,
                                      int interpolation_index)
{
   HTS_Tree *tree;
   HTS_Pattern *pattern;
   HTS_Boolean find;

   find = FALSE;
   (*tree_index) = 2;
   (*pdf_index) = 1;
   for (tree = ms->stream[stream_index].model[interpolation_index].tree; tree;
        tree = tree->next) {
      if (tree->state == state_index) {
         pattern = tree->head;
         if (!pattern)
            find = TRUE;
         for (; pattern; pattern = pattern->next)
            if (HTS_pattern_match(string, pattern->string)) {
               find = TRUE;
               break;
            }
         if (find)
            break;
      }
      (*tree_index)++;
   }

   if (tree == NULL)
      HTS_error(1, "HTS_ModelSet_get_parameter_index: Cannot find model %s.\n",
                string);
   (*pdf_index) = HTS_Tree_search_node(tree, string);
}

/* HTS_ModelSet_load_parameter: load model */
HTS_Boolean HTS_ModelSet_load_parameter(HTS_ModelSet * ms, HTS_File ** pdf_fp, HTS_File ** tree_fp, HTS_File ** win_fp, int stream_index, int window_size, int interpolation_size)
{
   int i;

   /* check */
   if (ms == NULL) {
      return FALSE;
   }
   if (stream_index < 0 || stream_index >= ms->nstream || window_size <= 0 || interpolation_size <= 0) {
      HTS_ModelSet_clear(ms);
      return FALSE;
   }
   if (pdf_fp == NULL) {
      HTS_error(1, "HTS_ModelSet_load_parameter: File for pdfs is not specified.\n");
      HTS_ModelSet_clear(ms);
      return FALSE;
   }
   if (tree_fp == NULL) {
      HTS_error(1, "HTS_ModelSet_load_parameter: File for wins is not specified.\n");
      HTS_ModelSet_clear(ms);
      return FALSE;
   }
   if (win_fp == NULL) {
      HTS_error(1, "HTS_ModelSet_load_parameter: File for wins is not specified.\n");
      HTS_ModelSet_clear(ms);
      return FALSE;
   }
   /* initialize */
   if (!ms->stream) {
      ms->stream = (HTS_Stream *) HTS_calloc(ms->nstream, sizeof(HTS_Stream));
      for (i = 0; i < ms->nstream; i++)
         HTS_Stream_initialize(&ms->stream[i]);
   }
   /* load */
   if (HTS_Stream_load_pdf_and_tree(&ms->stream[stream_index], pdf_fp, tree_fp, interpolation_size) == FALSE) {
      HTS_ModelSet_clear(ms);
      return FALSE;
   }
   if (HTS_Stream_load_dynamic_window(&ms->stream[stream_index], win_fp, window_size) == FALSE) {
      HTS_ModelSet_clear(ms);
      return FALSE;
   }

   return TRUE;
}

/* HTS_Node_find: find node for given number */
static HTS_Node *HTS_Node_find(HTS_Node * node, const int num)
{
   for (; node; node = node->next)
      if (node->index == num)
         return node;

   HTS_error(1, "HTS_Node_find: Cannot find node %d.\n", num);
   return NULL;                 /* make compiler happy */
}