Abstract: Headset assemblies and systems for mobile application control and power savings are provided. Headset assembly includes headband with proximity sensor activation element and receiver assembly configured to be rotated with respect to the headband between a first position and a second position. Receiver assembly has memory, proximity sensor, processor communicatively coupled to memory and proximity sensor, microphone boom having first and second ends, and microphone located adjacent first end and speaker located adjacent second end. Processor comprises PIO port. Proximity sensor activation element is positioned to trigger proximity sensor to activate PIO port when receiver assembly is rotated to the second position and to deactivate PIO port when receiver assembly is rotated to first position. Proximity sensor is configured to transmit at least one signal representing receiver assembly position.

Abstract: A network for communicating an exchange of data signals between multiple entities is described. The network has two or more channels. A first channel of the network is operable for exchanging a first portion of the data signals, based on a communication profile, between a first entity and one or more entities communicatively coupled with the first entity. At least a second channel of the network is operable for exchanging a second portion of the data signals, independent of the communication profile, between the first entity and at least one of the one or more entities.

Abstract: A device, system, and method whereby a speech-driven system used in an industrial environment distinguishes speech obtained from users of the system from other background sounds. In one aspect, the present system and method provides for a first audio stream from a user microphone collocated with a source of human speech (that is, a user) and a second audio stream from a environmental microphone which is proximate to the source of human speech but more remote than the user microphone. The audio signals from the two microphones are asynchronous. A processor is configured to identify a common, distinctive sound event in the environment, such as an impulse sound or a periodic sound signal. Based on the common sound event, the processor provides for synchronization of the two audio signals.

Abstract: Headset assemblies and systems for mobile application control and power savings are provided. Headset assembly includes headband with proximity sensor activation element and receiver assembly configured to be rotated with respect to the headband between a first position and a second position. Receiver assembly has memory, proximity sensor, processor communicatively coupled to memory and proximity sensor, microphone boom having first and second ends, and microphone located adjacent first end and speaker located adjacent second end. Processor comprises PIO port. Proximity sensor activation element is positioned to trigger proximity sensor to activate PIO port when receiver assembly is rotated to the second position and to deactivate PIO port when receiver assembly is rotated to first position. Proximity sensor is configured to transmit at least one signal representing receiver assembly position.

Abstract: Headset assemblies and systems for mobile application control and power savings are provided. Headset assembly includes headband with proximity sensor activation element and receiver assembly configured to be rotated with respect to the headband between a first position and a second position. Receiver assembly has memory, proximity sensor, processor communicatively coupled to memory and proximity sensor, microphone boom having first and second ends, and microphone located adjacent first end and speaker located adjacent second end. Processor comprises PIO port. Proximity sensor activation element is positioned to trigger proximity sensor to activate PIO port when receiver assembly is rotated to the second position and to deactivate PIO port when receiver assembly is rotated to first position. Proximity sensor is configured to transmit at least one signal representing receiver assembly position.

Abstract: Headset assemblies and systems for mobile application control and power savings are provided. Headset assembly includes headband with proximity sensor activation element and receiver assembly configured to be rotated with respect to the headband between a first position and a second position. Receiver assembly has memory, proximity sensor, processor communicatively coupled to memory and proximity sensor, microphone boom having first and second ends, and microphone located adjacent first end and speaker located adjacent second end. Processor comprises PIO port. Proximity sensor activation element is positioned to trigger proximity sensor to activate PIO port when receiver assembly is rotated to the second position and to deactivate PIO port when receiver assembly is rotated to first position. Proximity sensor is configured to transmit at least one signal representing receiver assembly position.

Abstract: A device, system, and method whereby a speech-driven system used in an industrial environment distinguishes speech obtained from users of the system from other background sounds. In one aspect, the present system and method provides for a first audio stream from a user microphone collocated with a source of human speech (that is, a user) and a second audio stream from a environmental microphone which is proximate to the source of human speech but more remote than the user microphone. The audio signals from the two microphones are asynchronous. A processor is configured to identify a common, distinctive sound event in the environment, such as an impulse sound or a periodic sound signal. Based on the common sound event, the processor provides for synchronization of the two audio signals.

Abstract: A wireless headset is provided. The wireless headset comprises a headset memory and a processor communicatively coupled to the headset memory. The headset memory is operable to store a unique identifier to identify the wireless headset. The processor is configured to read the unique identifier from the headset memory and transmit a signal representing the unique identifier of the wireless headset to another wireless device such that a screen on the wireless device identifies the wireless headset with the unique identifier. Systems and methods for identifying wireless devices for correct pairing are also provided, such as in the pairing of a Bluetooth-enabled wireless headset with a Bluetooth-enabled wireless mobile device.

Abstract: A process for sending headset control information from a mobile device to a wireless headset utilizing the BLUETOOTH Hands-Free Profile audio channel is provided. The process includes the steps of encoding the headset control information as an analog signal; digitizing the analog signal; transmitting the digitized signal from the mobile device; receiving the digitized signal on the wireless headset; and decoding the digitized signal into the headset control information.

Abstract: A network for communicating an exchange of data signals between multiple entities is described. The network has two or more channels. A first channel of the network is operable for exchanging a first portion of the data signals, based on a communication profile, between a first entity and one or more entities communicatively coupled with the first entity. At least a second channel of the network is operable for exchanging a second portion of the data signals, independent of the communication profile, between the first entity and at least one of the one or more entities.

Abstract: A process for sending headset control information from a mobile device to a wireless headset utilizing the BLUETOOTH Hands-Free Profile audio channel is provided. The process includes the steps of encoding the headset control information as an analog signal; digitizing the analog signal; transmitting the digitized signal from the mobile device; receiving the digitized signal on the wireless headset; and decoding the digitized signal into the headset control information.