Abstract: A game engine may generate video and audio content on a per-frame basis. Audio data corresponding to a current frame may be generated to comprise sound-field information independent of a speaker configuration or spatialization technology that may be used to play the associated audio. The sound-field may be generated based on monaural audio data corresponding to a sound produced by an in-game object at the object's position as of the current frame. The sound-field information may be transmitted to a remote computing device for reproduction using a selected, available speaker configuration and spatialization technology.

Abstract: A game engine may generate video and audio content on a per-frame basis. Audio data corresponding to a current frame may be generated to comprise sound-field information independent of a speaker configuration or spatialization technology that may be used to play the associated audio. The sound-field may be generated based on monaural audio data corresponding to a sound produced by an in-game object at the object's position as of the current frame. The sound-field information may be transmitted to a remote computing device for reproduction using a selected, available speaker configuration and spatialization technology.

Abstract: The subject disclosure is directed towards a technology that may be used in an audio processing environment. Nodes of an audio flow graph are associated with virtual mix buffers. As the flow graph is processed, commands and virtual mix buffer data are provided to audio fixed-function processing blocks. Each virtual mix buffer is mapped to a physical mix buffer, and the associated command is executed with respect to the physical mix buffer. One physical mix buffer mix buffer may be used as an input data buffer for the audio fixed-function processing block, and another physical mix buffer as an output data buffer, for example.

Abstract: A game engine may generate video and audio content on a per-frame basis. Audio data corresponding to a current frame may be generated to comprise sound-field information independent of a speaker configuration or spatialization technology that may be used to play the associated audio. The sound-field may be generated based on monaural audio data corresponding to a sound produced by an in-game object at the object's position as of the current frame. The sound-field information may be transmitted to a remote computing device for reproduction using a selected, available speaker configuration and spatialization technology.

Abstract: A game engine may generate video and audio content on a per-frame basis. Audio data corresponding to a current frame may be generated to comprise sound-field information independent of a speaker configuration or spatialization technology that may be used to play the associated audio. The sound-field may be generated based on monaural audio data corresponding to a sound produced by an in-game object at the object's position as of the current frame. The sound-field information may be transmitted to a remote computing device for reproduction using a selected, available speaker configuration and spatialization technology.

Abstract: The subject disclosure is directed towards a technology that may be used in an audio processing environment. Nodes of an audio flow graph are associated with virtual mix buffers. As the flow graph is processed, commands and virtual mix buffer data are provided to audio fixed-function processing blocks. Each virtual mix buffer is mapped to a physical mix buffer, and the associated command is executed with respect to the physical mix buffer. One physical mix buffer mix buffer may be used as an input data buffer for the audio fixed-function processing block, and another physical mix buffer as an output data buffer, for example.

Abstract: The subject disclosure is directed towards a technology that may be used in an audio processing environment. Nodes of an audio flow graph are associated with virtual mix buffers. As the flow graph is processed, commands and virtual mix buffer data are provided to audio fixed-function processing blocks. Each virtual mix buffer is mapped to a physical mix buffer, and the associated command is executed with respect to the physical mix buffer. One physical mix buffer mix buffer may be used as an input data buffer for the audio fixed-function processing block, and another physical mix buffer as an output data buffer, for example.

Abstract: Speaker identification techniques are described. In one or more implementations, sample data is received at a computing device of one or more user utterances captured using a microphone. The sample data is processed by the computing device to identify a speaker of the one or more user utterances. The processing involving use of a feature set that includes features obtained using a filterbank having filters that space linearly at higher frequencies and logarithmically at lower frequencies, respectively, features that model the speaker's vocal tract transfer function, and features that indicate a vibration rate of vocal folds of the speaker of the sample data.

Abstract: Speaker identification techniques are described. In one or more implementations, sample data is received at a computing device of one or more user utterances captured using a microphone. The sample data is processed by the computing device to identify a speaker of the one or more user utterances. The processing involving use of a feature set that includes features obtained using a filterbank having filters that space linearly at higher frequencies and logarithmically at lower frequencies, respectively, features that model the speaker's vocal tract transfer function, and features that indicate a vibration rate of vocal folds of the speaker of the sample data.