Abstract: A system for directing a user to modify an aspect of a vehicle via haptic output. The system includes one or more haptic output devices disposed proximate to a vehicle device and configured to generate haptic output in response to a control signal. The system further includes a processor coupled to the one or more haptic output devices. The processor is configured to determine that a parameter associated with the vehicle device should be modified, and, in response to the determining, transmit the control signal to the one or more haptic output devices.

Abstract: One embodiment of the invention sets forth a mechanism for selecting a voice recognition device included in a network of such devices for processing audio commands corresponding to a detected speech event. The voice recognition devices in the network individually determine which one of the devices is best suited to process the audio commands corresponding to the speech event. In operation, each of the voice recognition devices that detected the same speech event independently selects the same device for processing the audio command. Because each of the voice recognition devices, including the selected device, selects the same device for processing the audio command, the voice recognition devices not need to share information related to the selected device with one another.

Abstract: A method for identifying at least one characteristic of a sound-producing object includes storing, in a memory, audio data acquired from an auditory environment via at least one microphone; receiving an input indicating a user request to identify a characteristic of a sound-producing object included in the auditory environment; determining, via a processor and based on a portion of the audio data acquired from the auditory environment prior to the user request, the characteristic of the sound-producing object; and causing information corresponding to the characteristic of the sound-producing object to be output via at least one output device.

Abstract: Performing speech recognition in a multi-device system includes receiving a first audio signal that is generated by a first microphone in response to a verbal utterance, and a second audio signal that is generated by a second microphone in response to the verbal utterance; dividing the first audio signal into a first sequence of temporal segments; dividing the second audio signal into a second sequence of temporal segments; comparing a sound energy level associated with a first temporal segment of the first sequence to a sound energy level associated with a first temporal segment of the second sequence; based on the comparing, selecting, as a first temporal segment of a speech recognition audio signal, one of the first temporal segment of the first sequence and the first temporal segment of the second sequence; and performing speech recognition on the speech recognition audio signal.

Abstract: In at least one embodiment, an apparatus for generating a simulated vehicle sound is provided. At least one parameter module receives a first driver throttle signal and to transmit a first input signal indicative of a first simulated vehicle sound. An engine sound generator block audibly generates a first simulated vehicle sound in response to the first input signal. An engine sound removal block is operably coupled to a microphone that receives a first microphone input signal. The first microphone input signal includes first environmental noise associated with a vehicle exterior environment and the first simulated vehicle sound. The engine sound removal block is configured to filter the first simulated vehicle sound from the first microphone input signal to determine the first environmental noise. The engine sound generator generates a second simulated vehicle sound that is louder than the first environmental noise.

Abstract: A computer-program product embodied in a non-transitory computer readable medium that is programmed to communicate with a listener of headphones is provided. The computer-program product includes instructions to receive ambient noise indicative of external noise to a listener's headphone and to extract a speech component from the ambient noise. The computer-program product further includes instructions to derive an intent from the speech component of the ambient noise and compare the intent to at least one user defined preference. The computer-program product further including instructions to transmit an alert to notify a listener that the intent of the speech component matches the at least one user defined preference.

Abstract: In one embodiment, a computer-program product embodied in a non-transitory computer read-able medium that is programmed to manage a digital audio conference including a plurality of conference units and each conference unit including a microphone is provided. The computer-program product includes instructions to receive first information corresponding to a layout of a venue that facilitates an audio conference for users of the plurality of conference units. The computer-program product further includes instructions to store second information corresponding to an arrangement of a plurality of seats in the venue and to associate a first conference unit of the plurality of conference units to a first seat of the plurality of seats.

Abstract: A sound system is provided with a headphone that includes a transducer and at least one microphone. The sound system also includes an equalization filter and a loop filter circuit. The equalization filter is adapted to equalize an audio input signal based on at least one predetermined coefficient. The loop filter circuit includes a leaky integrator circuit that is adapted to generate a filtered audio signal based on the equalized audio input signal and a feedback signal indicative of sound received by the at least one microphone, and to provide the filtered audio signal to the transducer.

Abstract: An apparatus for delivering media content from a first media device to a second media device is provided. The apparatus includes a server configured to receive media content from a first media device and to receive a first plurality of user experience settings used at the first media device to playback the media content. The server is further configured to store operating capabilities from a second media device. The server is further configured to adjust at least a portion of the operating capabilities in response to the first plurality of user experience settings to generate translated user experience settings and to transmit the media content and the translated user experience settings to the second media device to enable the second media device being to playback the media content substantially similar to the first media device playing back the media content.

Abstract: A venting system for a vehicle speaker assembly includes an internal enclosure provided within a first vehicle component and having the vehicle speaker assembly disposed therein, a vent provided in the internal enclosure, and a port provided in a second vehicle component, wherein engagement of the vent with the port allows for an output generated by the vehicle speaker assembly to be transmitted from the internal enclosure to the second vehicle component.

Abstract: A loudspeaker includes a voice coil in a balanced state. In the loudspeaker, at least a first suspension element acts on a first side of the voice coil, and at least a second suspension element acts on a second side of the voice coil. The loudspeaker includes a symmetric magnet assembly. The voice coil aligns with the symmetric magnet assembly. The symmetric alignment contributes to the loudspeaker yielding substantially symmetric motor force (BL), suspension stiffness (K), and inductance (Le).

Abstract: A headphone is provided with a housing and a transducer. The housing has a baffle surface with a recess formed therein and an edge formed about a periphery of the baffle surface. The transducer disposed in the recess and supported by the housing. The headphone is also provided with an ear cushion and a sheet. The ear cushion has a base formed in an annular shape and connected to the housing about the edge and a contact surface spaced apart from the base to engage a portion of a user's head around an outer ear, wherein the ear cushion defines a cavity to collectively form an acoustic chamber with the user's head. The sheet is disposed over the baffle surface with a hole formed therethrough and aligned with the transducer. The sheet is also formed of a sound absorbent material to suppress sound reflections within the acoustic chamber.

Abstract: In one embodiment, an earpiece system comprising an enhancer is provided. The enhancer is configured to receive an earbud of a speaker and to fit in a user's ear. The enhancer includes a first portion having a first surface that defines a concave crus relief feature. The enhancer further includes a second portion extending from the first portion and forming a sound tunnel having an opening at an end opposite the first portion, and a flexible skirt positioned with the sound tunnel and projecting over the second portion to resiliently seal with the user's ear canal when inserted therein.

Abstract: Mobile devices may capture audio signals indicative of test audio received by an audio capture device of the mobile device; and send the captured audio and the zone designation to a sound processor to determine equalization settings for speakers of the zone of the venue. An audio filtering device may receive the captured audio signals from the mobile devices; compare each of the captured audio signals with the test signal to determine an associated reliability of each of the captured audio signals; combine the captured audio signals into zone audio data; and transmit the zone audio data and associated reliability to a sound processor configured to determine equalization settings for the zone based on the captured audio signals and the test signal.

Abstract: An audio playback device may include a speaker configured to play media content, at least one interface including a switch, a transceiver configured to one of transmit the media content to first audio playback device and receive the media content from a second audio playback device; and a controller configured to receive a signal indicative of a user input that is received at the switch for a time duration and to one of transmit the media content to the second audio playback device via the transceiver for playback of the media content at the second audio playback device and to receive the media content from the second audio playback device via the transceiver based on the time duration.

Abstract: A sound system is provided with a headphone that includes a transducer and at least one microphone. The sound system also includes an equalization filter and a loop filter circuit. The equalization filter is adapted to equalize an audio input signal based on at least one predetermined coefficient. The loop filter circuit includes a leaky integrator circuit that is adapted to generate a filtered audio signal based on the equalized audio input signal and a feedback signal indicative of sound received by the at least one microphone, and to provide the filtered audio signal to the transducer.

Abstract: In at least one embodiment, a vehicle active noise cancellation (ANC) apparatus including an ANC controller is disclosed. The ANC controller is operably coupled to at least one error microphone. The ANC controller is configured to receive a first signal indicative of environmental noise that propagates through a vehicle cabin and that is received at a voice recognition (VR) microphone and to generate a noise cancellation wave to remove the environmental noise, the noise cancellation wave being received at the VR microphone. The ANC controller is configured to receive an audio output from the at least one error microphone that is at least indicative of the environmental noise and the noise cancellation wave received at the VR microphone and to apply at least one correction filter to the audio output to remove the environmental noise and the noise cancellation wave that is received at the VR microphone.

Abstract: A computing system automates the configuration and management of a live sound system that includes a processor and memory for building in a GUI of a display a representation of the live sound system for a venue. The system loads a venue template that includes loudspeaker arrays and related properties including a setup configuration of the loudspeaker arrays and tuning data for constituent loudspeakers that are operable to provide an audio coverage pattern for the venue. The system overlays on top of the representation of the loudspeaker arrays a wiring circuit representation indicating interconnections of the loudspeakers that define bandpass inputs for each array. The system generates a plurality of amplifiers in the representation to drive the arrays, and associates amplifier channels of the amplifiers with the bandpass inputs. The amplifier channels include representations of output channels of DSPs coupled with respective amplifier channels.

Abstract: A headphone assembly is described having a concha-style headphone including an earpiece at least partially covered in dual foam and a headband for providing a clamping force sufficient to the seal the concha of a user's with the earpiece. The earpiece may be shaped to fit different concha sizes and shapes to provide a universal fit. The dual foam may include a layer of memory foam underneath acoustically-transparent, porous outer foam. The earpiece may further include a transducer and at least one microphone positioned with the earpiece to receive sound radiated by the transducer and noise. The headphone assembly may be equipped with an active noise-canceling (ANC) control system configured to receive an audio input signal from an audio source and provide a filtered audio output signal to the transducer based on part on a perceived frequency response of the headphone as measured by the microphone.

Abstract: In at least one embodiment, an apparatus for performing an audio measurement is provided. The apparatus includes a controller that is programmed to generate an audio test signal based on a first frequency range that comprises a first noise spectrum, a second frequency range that comprises a second noise spectrum, and a third frequency range that comprises a third noise spectrum and to transmit the audio test signal to an audio device that generates an audio response signal responsive to the audio test signal. The controller is further programmed to receive the audio response signal and to determine audio related characteristics for the audio device in response to the audio response signal.