An articulated vehicle speaker system includes a vehicle mount adapted to be mounted on a vehicle and a speaker assembly including front and back injection molded panels which, when joined together, define a speaker compartment at first and second ends of the panels to house a speaker unit and a central compartment which separates the speaker compartments. A pair of spaced, powered hinge assemblies are disposed within the central compartment and hingedly connect the speaker assembly to the vehicle mount to allow limited swinging movement of the speaker assembly between different positions on the vehicle. Each hinge assembly includes a bidirectional, electrically-powered actuator and transmission subassembly. Each subassembly including a rotary output shaft and a set of interconnected transmission elements coupled to the output shaft and to the speaker assembly to automatically swing the speaker assembly based on a command signal.

An earphone includes a loudspeaker, a rear housing and a front housing. The loudspeaker is disposed in the rear housing, a sound output hole is disposed at a first end of the front housing, a second end of the front housing is rotatably connected to the rear housing, and the front housing is rotatable relative to the rear housing and between a first position and a second position. In a case that the front housing is rotated to the first position relative to the rear housing, the sound output hole faces a first direction, and the loudspeaker is configured to output a first channel audio signal. In a case that the front housing is rotated to the second position relative to the rear housing, the sound output hole faces a second direction, and the loudspeaker is configured to output a second channel audio signal.

A sound management enclosure, production, and recapture device may include a generally symmetrical design and may be constructed and arranged to optionally internally mount components therein. The sound management device may be constructed and arranged to alter, focus, or dissipate sound waves within a predictable environment in order to enhance the associated effects. Sound capturing devices, such as microphones, may be placed within the sound management enclosure for transmission to an external system for recording or projection.

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.

An audio processing method includes: obtaining relative attitude information between a lens and a plurality of microphones, where the lens is movable relative to at least one of the plurality of microphones; obtaining original audio signals acquired by the plurality of microphones; determining weight information corresponding to the original audio signals based on the relative attitude information; and synthesizing the original audio signals based on the weight information to obtain a target audio signal, where the target audio signal is played with images captured by the lens. The method disclosed in this application resolves a problem that a sound source orientation indicated by recorded audio does not match the images captured by the lens.

An electronic device and a camera device are provided. The electronic device includes a device casing, the device casing including a side frame and a rear shell; a camera mechanism on the side frame or the rear shell; a connecting member fixedly connected to the side frame or the rear shell; and a support plate, the camera mechanism being connected to the support plate through a first pivotal shaft, the support plate being connected to the connecting member through a second pivotal shaft, wherein the support plate is rotatable relative to the connecting member through the second pivotal shaft, so as to drive the camera mechanism to rotate above a top surface of the side frame of the device casing, and the camera mechanism is rotatable relative to the support plate through the first pivotal shaft, so as to adjust an orientation of the camera mechanism.

An example reverberation device configured for use with a musical instrument is disclosed. The example reverberation device comprises: (a) an input amplifier configured to receive an input signal from the musical instrument and output an amplified input signal based on the received input signal; (b) an input transducer connected to the input amplifier and configured to transmit the amplified input signal; (c) a reverberation plate comprising a bended surface, wherein the reverberation plate is connected to the input transducer, and wherein the reverberation plate is configured to output the input signal as an output signal at the bended surface; (d) an output transducer connected to the reverberation plate at the bended surface and configured to transmit the output signal; and (e) an output amplifier configured to receive the transmitted output signal from the output transducer and output an amplified output signal.

A personal transportation vehicle comprising a frame member including an aperture. The personal transportation vehicle further comprising a wireless speaker assembly configured within the frame member, wherein the wireless speaker assembly includes speakers and a protective grille that fits within the aperture. The personal transportation vehicle further comprising circuitry connected to the wireless speaker assembly that provides wireless speaker functionality with a mobile device, at least one wheel assembly, and a power source supplying power to the wireless speaker assembly.

Provided a robot for assisting hearing of a user, while minimizing an influence on the surroundings. The robot includes a speaker, a microphone configured to recognize a voice, a processor configured to acquire a position of a user's face when a hearing aid command is acquired on the basis of the voice recognized through the microphone, and a driving unit configured to cause the speaker to be moved toward the position of the user's face, wherein the processor acquires a sound which is a target of hearing aid, generates an assistant sound by amplifying a predetermined frequency band of the sound or converting the predetermined frequency band of the sound into a different frequency band, and outputs the assistant sound through the speaker.

There is provided an automated microphone system (100) having a microphone (104). The system (100) comprises a microphone stand (102) having at least one movable arm (1022), at least one movable leg (1024) and a fixed base (1026) attached to the at least one movable leg (1024), the at least one movable arm (1022) being adapted to mount the microphone (104) at a first end and connected with the at least one movable leg (1024) at a second end, one or more sensors (106) disposed at one or more of the at least one movable leg (1024), the at least one movable arm (1022) and the fixed base (1026), one or more motors (108) connected with each of the at least one movable arm (1022), the at least one movable leg (1024) and the fixed base (1026) and a control module (110) connected with the one or more sensors (106) and the one or more motors (108).