294 template<int CHANNELS>
299     const size_t headOffset = c.halfNumCoefs*CHANNELS;  in resample()
320                 read<CHANNELS>(impulse, phaseFraction, mBuffer.i16, inputIndex);  in resample()
323                 read<CHANNELS>(impulse, phaseFraction, mBuffer.i16, inputIndex);  in resample()
329                     read<CHANNELS>(impulse, phaseFraction, mBuffer.i16, inputIndex);  in resample()
338         for (size_t i=0 ; i<CHANNELS ; i++) {  in resample()
339             head[i] = in[inputIndex*CHANNELS + i];  in resample()
344             filterCoefficient<CHANNELS>(&out[outputIndex], phaseFraction, impulse, vRL);  in resample()
354                 read<CHANNELS>(impulse, phaseFraction, in, inputIndex);  in resample()
369     return outputIndex / CHANNELS;  in resample()
372 template<int CHANNELS>
384     impulse += CHANNELS;  in read()
389         const size_t stateSize = (c.halfNumCoefs*2)*CHANNELS;  in read()
394     int16_t* head = impulse + c.halfNumCoefs*CHANNELS;  in read()
395     for (size_t i=0 ; i<CHANNELS ; i++) {  in read()
396         head[i] = in[inputIndex*CHANNELS + i];  in read()
400 template<int CHANNELS>
425     int16_t const* sN = samples + CHANNELS;  in filterCoefficient()
433         interpolate<CHANNELS>(l, r, coefsP++, offset, lerpP, sP);  in filterCoefficient()
434         sP -= CHANNELS;  in filterCoefficient()
435         interpolate<CHANNELS>(l, r, coefsN++, offset, lerpN, sN);  in filterCoefficient()
436         sN += CHANNELS;  in filterCoefficient()
442     if (CHANNELS == 1) {  in filterCoefficient()
445         sP -= CHANNELS*3;  in filterCoefficient()
510     } else if (CHANNELS == 2) {  in filterCoefficient()
513         sP -= CHANNELS*3;  in filterCoefficient()
596 template<int CHANNELS>
605     if (CHANNELS == 2) {  in interpolate()