Abstract: Systems and methods for loudspeaker layout mapping in accordance with embodiments of the invention are illustrated. In many embodiments, loudspeakers are able to generate tones which are used by other loudspeakers to generate impulse responses. The impulse responses and the angles at which the tones were received can be used to determine the relative locations and orientations of the loudspeakers. In various embodiments, obstacles which obstruct the path of the tone can be identified and accounted for.

Abstract: Systems and methods for audio in accordance with embodiments of the invention are illustrated. One embodiment includes a method for upmixing audio, including receiving an audio track which includes an input plurality of channels, each channel having an encoded audio signal, decoding the audio signal, calculating a first frequency spectrum for a low frequency component of the signal using a first window, calculating a second frequency spectrum for a high frequency component of the signal using a second window, determining at least one direct signal by estimating panning coefficients, estimating at least one ambient signal based on the at least one direct signal, and generating an output plurality of channels based on the at least one direct signal and the at least one ambient signal.

Abstract: Systems and methods for rendering spatial audio in accordance with embodiments of the invention are illustrated. One embodiment includes a spatial audio system, including a primary network connected speaker, including a plurality of sets of drivers, where each set of drivers is oriented in a different direction, a processor system, memory containing an audio player application, wherein the audio player application configures the processor system to obtain an audio source stream from an audio source via the network interface, spatially encode the audio source, decode the spatially encoded audio source to obtain driver inputs for the individual drivers in the plurality of sets of drivers, where the driver inputs cause the drivers to generate directional audio.

Abstract: Systems and methods spatial audio rendering using spatialization shaders in accordance with embodiments of the invention are illustrated. One embodiment includes a spatial audio system, including a plurality of loudspeakers, where each loudspeaker includes at least one driver, a processor, and a memory containing a spatial audio rendering application, where the spatial audio rendering application directs the processor to obtain a plurality of audio stems, obtain a position and a rotation of each loudspeaker in the plurality of loudspeakers, obtain a relative location for each audio stem to be rendered, calculate a plurality of tuning parameters for each loudspeaker in the plurality of loudspeakers, provide the plurality of tuning parameters, the position and rotation of each loudspeaker to a spatialization shader, generate a driver feed for each driver in the plurality of loudspeakers using the spatialization shader, and render each audio stem at their respective location using the loudspeakers.

Abstract: Systems and methods for loudspeaker layout mapping in accordance with embodiments of the invention are illustrated. In many embodiments, loudspeakers are able to generate tones which are used by other loudspeakers to generate impulse responses. The impulse responses and the angles at which the tones were received can be used to determine the relative locations and orientations of the loudspeakers. In various embodiments, obstacles which obstruct the path of the tone can be identified and accounted for.

Abstract: Systems and methods for rendering spatial audio in accordance with embodiments of the invention are illustrated. One embodiment includes a spatial audio system, including a primary network connected speaker, including a plurality of sets of drivers, where each set of drivers is oriented in a different direction, a processor system, memory containing an audio player application, wherein the audio player application configures the processor system to obtain an audio source stream from an audio source via the network interface, spatially encode the audio source, decode the spatially encoded audio source to obtain driver inputs for the individual drivers in the plurality of sets of drivers, where the driver inputs cause the drivers to generate directional audio.

Abstract: Systems and methods for audio in accordance with embodiments of the invention are illustrated. One embodiment includes a method for upmixing audio, including receiving an audio track which includes an input plurality of channels, each channel having an encoded audio signal, decoding the audio signal, calculating a first frequency spectrum for a low frequency component of the signal using a first window, calculating a second frequency spectrum for a high frequency component of the signal using a second window, determining at least one direct signal by estimating panning coefficients, estimating at least one ambient signal based on the at least one direct signal, and generating an output plurality of channels based on the at least one direct signal and the at least one ambient signal.

Abstract: Systems and methods for fabricating loudspeaker diaphragms with embedded visual elements in accordance with embodiments of the invention are illustrated. One embodiment includes a loudspeaker diaphragm including a first transparent layer, a plurality of opaque layers, one or more inserts, where the one or more inserts are embedded in gaps in the plurality of opaque layers such that the one or more inserts are visible through the first transparent layer, and a second transparent layer, where the plurality of opaque layers is bonded between the first and second transparent layers.

Abstract: Systems and methods for rendering spatial audio in accordance with embodiments of the invention are illustrated. One embodiment includes a spatial audio system, including a primary network connected speaker, including a plurality of sets of drivers, where each set of drivers is oriented in a different direction, a processor system, memory containing an audio player application, wherein the audio player application configures the processor system to obtain an audio source stream from an audio source via the network interface, spatially encode the audio source, decode the spatially encoded audio source to obtain driver inputs for the individual drivers in the plurality of sets of drivers, where the driver inputs cause the drivers to generate directional audio.

Abstract: A speaker system may include at least two transducers arranged within an enclosure and horizontally aligned with one another; and a processor configured to apply at least one filter to the transducers to generate beamforming audio content, the processor configured to receive input channels and determine a desired filter impulse response at a first frequency point of the input channels. The processor may also be configured to determine a frequency response of the desired filter impulse response at a first angle, and generate a target function based on the frequency response for application at the first angle.

Abstract: At least two closely spaced identical or similar loudspeaker assemblies in a horizontal linear array, each loudspeaker assembly comprising at least two identical or similar loudspeakers pointing in different directions so that the loudspeaker assemblies have adjustable, controllable or steerable directivity characteristics. For example, a control module may drive, adjust, control, or steer the loudspeaker assemblies so that at least one acoustic wave field is generated at least at one listening position.

Abstract: Systems and methods for rendering spatial audio in accordance with embodiments of the invention are illustrated. One embodiment includes a spatial audio system, including a primary network connected speaker, including a plurality of sets of drivers, where each set of drivers is oriented in a different direction, a processor system, memory containing an audio player application, wherein the audio player application configures the processor system to obtain an audio source stream from an audio source via the network interface, spatially encode the audio source, decode the spatially encoded audio source to obtain driver inputs for the individual drivers in the plurality of sets of drivers, where the driver inputs cause the drivers to generate directional audio.

Abstract: A speaker system may include at least two transducers arranged within an enclosure and horizontally aligned with one another; and a processor configured to apply at least one filter to the transducers to generate beamforming audio content, the processor configured to receive input channels and determine a desired filter impulse response at a first frequency point of the input channels. The processor may also be configured to determine a frequency response of the desired filter impulse response at a first angle, and generate a target function based on the frequency response for application at the first angle.

Abstract: Sound capturing which includes applying a far-field microphone functionality to a multiplicity of first microphone signals to provide a first output signal, and applying a less directional microphone functionality to one or more second microphone signals to provide a second output signal.

Abstract: A system including an audio source configured to transmit a first stimulus signal to one of a first beamforming loudspeaker assembly and a second beamforming loudspeaker assembly to play back an audio output and to receive the audio output from the one of the first beamforming loudspeaker assembly and the second beamforming loudspeaker assembly. The audio source is configured to determine a first distance between a first beamforming loudspeaker assembly and a second beamforming loudspeaker assembly and to determine a second distance between the audio source and the first beamforming loudspeaker assembly. The audio source is configured to determine a third distance between the audio source and the second beamforming loudspeaker assembly and to determine a location for transmitting the audio output from each of the first beamforming loudspeaker assembly and the second beamforming loudspeaker assembly based at least on the first distance, the second distance, and the third distance.

Abstract: At least two closely spaced identical or similar loudspeaker assemblies in a horizontal linear array, each loudspeaker assembly comprising at least two identical or similar loudspeakers pointing in different directions so that the loudspeaker assemblies have adjustable, controllable or steerable directivity characteristics. For example, a control module may drive, adjust, control, or steer the loudspeaker assemblies so that at least one acoustic wave field is generated at least at one listening position.

Abstract: A digital signal processor is programmed to extract a center channel from a stereo input, apply the center channel to an array of speaker elements using a first set of finite impulse response filters and a first rotation matrix to generate a first beam of audio content at a target angle about the axis, apply a left channel of the stereo input to the array of speaker elements using a second set of finite impulse response filters and a second rotation matrix to generate a second beam of audio content at a first offset angle from the target angle about the axis, and apply a right channel of the stereo input to the array of speaker elements using a third set of finite impulse response filters and third rotation matrix to generate a third beam of audio content at a second offset angle from the target angle about the axis.

Abstract: Sound capturing which includes applying a far-field microphone functionality to a multiplicity of first microphone signals to provide a first output signal, and applying a less directional microphone functionality to one or more second microphone signals to provide a second output signal.

Abstract: A plurality of speakers are arranged within a listening space. An audio processor is configured to generate a plurality of sound zones within the listening space using the plurality of speakers. The audio processor is programmed to create zone audio signals to generate at least one bright zone in the plurality of sound zones, perform individual delay compensation to the zone audio signals to add additional delay to a subset of the plurality of speakers, the additional delay defined to adjust acoustical output from the subset of the plurality of speakers to match an amount of delay of a most-delayed speaker of the plurality of speakers to the plurality of sound zones, and transmit the zone audio signals to reproduce the at least one bright zone by the plurality of speakers.

Abstract: A method for binaural synthesis of at least one virtual sound source comprises operating a first device comprising at least four physical sound sources, wherein, when the first device is used by a user, at least two physical sound sources are positioned closer to a first ear of the user than to a second ear, and at least two physical sound sources are positioned closer to the second ear than to the first ear, and wherein, for each ear, at least two physical sound sources are configured to acoustically induce natural directional pinna cues associated with different directions of sound arrival at the ear of the user. The method further comprises receiving and processing at least one audio input signal and distributing at least one processed version of the audio input signal at least between 4 kHz and 12 kHz over at least two physical sound sources for each ear.