A wireless communication system comprises a first wireless communication device for a first team member, and a second wireless communication device for a second team member. The first wireless communication device comprises a microphone and a transmitter for transmitting an oral message via a first wireless communication protocol. The second wireless communication device comprises a main transceiver, a wearable audio device, and a support configured for mounting the main transceiver onto hockey shoulder pads of the second team member in a location physically remote from the wearable audio device.

A method and system of conferencing can include the steps of initiating a conference call at a communication device with two or more communication devices and selecting to suppress a voice communication of at least one communication device on the conference call where a modified electronic signal is generated with the selected at least one communication device so that the voice communication from the selected at least one communication device is inaudible. The method or system further includes sending the modified electronic signal to at least one other communication device on the conference call. Other embodiments are disclosed.

A head-mounted device, a wearing detection method, a wearing detection apparatus, and a medium are provided. The head-mounted device includes a GMR magnetic sensor and an IR sensor. The GMR magnetic sensor outputs a collected signal so that the MCU calculates a reference parameter indicating a position of the head-mounted device. The IR sensor outputs a collected signal so that the MCU makes determination based on the output signal. Only in a case that the reference parameter and the output signal meet the predetermined condition, it is determined that the head-mounted device is worn.

Wireless headphones with integral camera including a headphones assembly and a pivot arm assembly are disclosed. These assemblies in conjunction with one another provide a simple solution for video or teleconferencing. The headphones assembly includes speakers within a speaker housing surrounded by ear pads. The speakers are placed on either end of an adjustable headband to fit various user head sizes. The exterior of the speaker housing includes audio control buttons and a pivot arm mounted thereon. The pivot arm includes a forward-facing camera at an exterior distal end with respect to the speaker housing. The pivot arm also includes a self-facing camera with a microphone on the interior of said distal end. The included cameras can be toggled via a toggle button mounted to the pivot arm as well. The pivot arm is adjustable via a telescopic portion to modify camera angles.

A voice input apparatus includes first to third microphones and a controller. The first microphone collects a voice at a first position outside an ear canal of a speaker, and outputs a first input voice signal. The second microphone collects a voice at a second position outside the ear canal of the speaker and closer to a mouth of the speaker than the first position, and outputs a second input voice signal. The third microphone collects a voice inside the ear canal of the speaker, and outputs a third input voice signal. The controller detects a sound pressure of the first input voice signal, sets reflection degrees of the second and third input voice signals according to the detected sound pressure, and generates an output voice signal including at least one of the second and third input voice signals based on the reflection degrees.

A method of using video gaming communication system. A gaming chair is provided that includes a control panel and a speaker operably connected to the control panel. A headphone is provided that includes a speaker and a microphone. The headphone is operably connected to the control panel. The control panel is operably connected to a gaming system. A video game sound is transmitted from the gaming system to the control panel. The video game sound is emitted from the gaming chair speaker and the headphone speaker. An audio input is received from the headphone microphone. In response to receiving the audio input, the emitting of the video game sound from at least one of the gaming chair speaker and the headphone speaker is changed.

A speaker system includes a speaker, a processor, and an active noise cancellation (ANC) circuit communicatively coupled with the processor. The ANC is configured to apply ANC on audio signals from outside the speaker system to generate a modified audio signal stream through the speaker. The application of ANC is to include generation of ANC signals to interfere with at least part of the audio signals from outside the speaker system in the modified audio signal stream. The processor is configured to determine of low-frequency energy at the speaker system, the low-frequency energy below a threshold frequency. The ANC circuit is configured to, based on the determination of low-frequency energy at the speaker system, perform a corrective action on application of ANC to the audio signals from outside the speaker system.

A headset includes: a housing provided at one end portion of a headband; a boom main body attached to the housing; and an ear pad attached to the housing on a side opposite to the boom main body. The ear pad includes a cup portion configured to cover an entire auricle of a wearer when the entire auricle is inserted into an inner diameter portion of the cap portion. In the cup portion, a plurality of through holes allowing the inner diameter portion to be open to an outside are formed closer to the housing than a cup opening of the inner diameter portion.

A personalized sound management system for an acoustic space includes at least one transducer, a data communication system, one or more processors operatively coupled to the data communication system and the at least one transducer, and a medium coupled to the one or more processors. The processors access a database of sonic signatures and display a plurality of personalized sound management applications that perform at least one or more tasks among identifying a sonic signature, calculating a sound pressure level, storing metadata related to a sonic signature, monitoring sound pressure level dosage levels, switching to an ear canal microphone in a noisy environment, recording a user's voice, storing the user's voice in a memory of an earpiece device, or storing the user's voice in a memory of a server system, or converting received text received in texts or emails to voice using text to speech conversion. Other embodiments are disclosed.

An earphone comprising housing, a speaker, a speaker protrusion extending along a protrusion axis and comprising an inner protrusion surface and an outer protrusion surface, a resilient eargel comprising an inner eargel surface and an outer eargel surface. The eargel is detachably attached to the speaker protrusion, such that the outer protrusion surface abuts an abutment part of the inner eargel surface in an abutment zone extending along the protrusion axis. The eargel is adapted to be inserted into the outer ear of a user, such that it abuts the ear canal of a user, whereby a cavity is provided between at least the speaker, the inner protrusion surface, the inner eargel surface and the ear canal. The earphone is provided with a vent channel coupling the cavity and the ambient, wherein the vent channel comprises a groove (8) in the outer protrusion surface or the inner eargel surface. The vent channel is provided between the groove in the outer protrusion surface and the inner eargel surface or between the groove in the inner eargel surface and the outer protrusion surface. The groove comprises a first groove part, that extends in a plane orthogonal to the protrusion axis.