Abstract:
Various embodiments relate generally to a mobile device (e.g., cellular phone) case and neck lanyard (with integrated headphones and microphone) allowing hands-free use of the mobile device. An embodiment magnetically couples the case to the lanyard. Other embodiments are described herein.
Abstract:
Electronic devices and accessories such as headsets for electronic devices are provided. A microphone may be included in an accessory to capture sound for an associated electronic device. Buttons and other user interfaces may be included in the accessories. An accessory may have an audio plug that connects to a mating audio jack in an electronic device, thereby establishing a wired communications link between the accessory and the electronic device. The electronic device may include power supply circuitry for applying bias voltages to the accessory. The bias voltages may bias a microphone and may adjust settings in the accessory such as settings related to operating modes. User input information may be conveyed between the accessory and the electronic device using ultrasonic tone transmission. The electronic device may also gather input from the accessory using a voltage detector coupled to lines in the communications path.
Abstract:
Electronic devices and accessories such as headsets for electronic devices are provided. A microphone may be included in an accessory to capture sound for an associated electronic device. Buttons and other user interfaces may be included in the accessories. An accessory may have an audio plug that connects to a mating audio jack in an electronic device, thereby establishing a wired communications link between the accessory and the electronic device. The electronic device may include power supply circuitry for applying bias voltages to the accessory. The bias voltages may bias a microphone and may adjust settings in the accessory such as settings related to operating modes. User input information may be conveyed between the accessory and the electronic device using ultrasonic tone transmission. The electronic device may also gather input from the accessory using a voltage detector coupled to lines in the communications path.
Abstract:
The present specification discloses an incoming/outgoing-talk unit having an ear-hook unit, a cartilage conduction vibration unit that makes contact with ear cartilage in a state where the hook unit is hooked to the ear, an outgoing-talk unit, and a unit for performing short-range wireless communication with the mobile telephone. Further disclosed is an incoming-talk unit having an ear-hook unit, and a cartilage conduction vibration unit for transmitting cartilage conduction from outside of ear cartilage in a state where the hook unit is hooked to the ear. Also disclosed is an incoming-talk unit having a three-dimensional viewing adjustment unit, a temple having a unit for adjusting contact of eyesight-adjusting eyeglasses with the temple when the unit is superposedly mounted on the eyesight-adjusting eyeglasses; and an audio information output unit provided to the temple.
Abstract:
The holder for a hand-held electronic communication device is lightweight and comprises a perforated faceplate and a base of ergonomic form symmetrically constructed for ambidextrous, hand-held use, shoulder support, and surface support in both portrait and landscape orientations. The faceplate incorporates two clamping mechanisms, one being operative for fixing its gripping part in selected positions of extension from the faceplate and the other dynamically adjusting to position its gripping part for cooperatively clamping the communication device therebetween. A peripheral gasket on the front of the faceplate cushions and positionally stabilizes the mounted device, and is formed to promote the projection of sound waves from under the mounted device. The base may have holes and/or an internal acoustic baffle to further promote the projection of sound waves from its cavity, and holes in the faceplate and/or the base may enhance aesthetic attributes.
Abstract:
Disclosed herein is a protective helmet that includes a protective outer shell, a head cavity and a computer processor housed within the protective helmet. Further disclosed is a transmitter and a receiver located in the protective helmet that is configured to establish a communication with a mobile communicator. Further disclosed is a microphone connected to the computer processor and located in a mouth region of the head cavity, the microphone configured to convert sound to an electronic transmission and provide the electronic transmission to the computer processor. Additionally, at least one speaker connected to the computer processor and located in an ear region of the head cavity. The computer processor is configured to receive verbal instructions from the microphone. The instructions are configured to control the mobile communicator. Moreover, the computer processor is configured to receive information from the mobile communicator and provide this information to the speakers in the form of an audio transmission.
Abstract:
A programmable communicator device is disclosed having a wireless communications circuit, including an antenna, configured to receive a transmission, and an identity module having a unique identifier. The programmable communicator further includes a processing module including program code configured to determine if the transmission is from an authenticated caller by determining whether a received transmission contains the unique identifier, and memory configured to store telephone numbers or IP addresses received in transmissions from an authenticated caller.
Abstract:
A headset system (10) comprising a headset unit (1) and a detachable wearing device (4). The headset unit (1) comprises a microphone arm (3), which is movable between a compact position and an extended position. A proximity sensor (29; 33) in the headset unit (1) detects whether the microphone arm (3) is in the compact position or the extended position. The headset unit (1) and the wearing device (4) are adapted to be movably attached to each other, so that the headset unit (1) can be moved between a use position and a rest position. The proximity sensor (29; 33) detects, when the headset unit (1) is moved into the rest position.
Abstract:
A video recording camera system configured to record video to a non-volatile memory configured as a circular video recording buffer. In an embodiment, the video recording camera system includes a non-volatile storage medium and a processor is configured to manage at least a portion of the non-volatile storage medium as a circular buffer, replacing recorded video data stored in a subset of memory addresses corresponding to an older recorded video frame with the data corresponding to a newer video frame. In further embodiments, clip files may be partitioned from the circular buffer to prevent logical portion of the recorded video from being overwritten upon reaching a capacity of the circular recorded video buffer.
Abstract:
Methods, systems, and apparatuses for routing received telephone call audio through a mobile phone handset or associated wireless headset are described. The handset is configured to wirelessly communicate with a headset. An audio signal is received that is generated by a microphone of the handset or headset. The audio signal is compared to a reference signal to generate an audio source determination. In a first aspect, the comparison is performed in the handset. In an alternative aspect, the comparison is performed in the headset. One of the handset or headset is selected to provide further audio information associated with a received telephone call based on the audio source determination.