Return the number of 16-bit sound samples that fit in this sound buffer. To avoid confusion, it is better to get the size of SoundBuffer using monoSampleCount or stereoSampleCount.
This word object was just read in from a stream. It was stored in Big Endian (Mac) format. Swap each pair of bytes (16-bit word), if the current machine is Little Endian.
Why is this the right thing to do? We are using memory as a byteStream. High and low bytes are reversed in each 16-bit word, but the stream of words ascends through memory. Different from a Bitmap.
Fill the receiver, an indexable bytes or words object, with the given positive integer. The range of possible fill values is [0..255] for byte arrays and [0..(2^32 - 1)] for word arrays.
Answer a new SoundBuffer half the size of the receiver consisting of every other sample. If doFiltering is true, a simple low-pass filter is applied to avoid aliasing of high frequencies. Assume that receiver is monophonic.
Answer a new SoundBuffer half the size of the receiver consisting of only the left channel of the receiver, which is assumed to contain stereo sound data.
Answer a new SoundBuffer half the size of the receiver consisting of only the right channel of the receiver, which is assumed to contain stereo sound data.
Return the index of the first sample whose absolute value is over the given threshold value. Return an index one greater than my size if no sample is over the threshold.
Answer a new SoundBuffer half the size of the receiver that mixes the left and right stereo channels of the receiver, which is assumed to contain stereo sound data.
Increase my amplitudes so that the highest peak is the given percent of full volume. For example 's normalized: 50' would normalize to half of full volume.
Answer an array of two SoundBuffers half the size of the receiver consisting of the left and right channels of the receiver (which is assumed to contain stereo sound data).
