Embodiments include a system for enhancing an audio listening experience, the system comprising an electrical device configured to impart vibrations, to a chest area of a user, based on an incoming audio signal and detect an acoustic resonance generated in a chest cavity of the user as a result of the vibrations; and an acoustic system configured to output the incoming audio signal in synchrony with the vibrations imparted to the chest cavity and simultaneously deliver haptic and audible vibrations associated with the acoustic resonance to the ears of the user. Embodiments also include a headphone system comprising an audio driver for outputting an incoming audio signal to the ears; and at least one acoustical port configured to deliver haptic and audible vibrations to the ear, the haptic and audible vibrations being associated with an acoustic resonance generated in a chest cavity of the user based on the audio signal.

Embodiments include a system for enhancing an audio listening experience, the system comprising an electrical device configured to impart vibrations, to a chest area of a user, based on an incoming audio signal and detect an acoustic resonance generated in a chest cavity of the user as a result of the vibrations; and an acoustic system configured to output the incoming audio signal in synchrony with the vibrations imparted to the chest cavity and simultaneously deliver haptic and audible vibrations associated with the acoustic resonance to the ears of the user. Embodiments also include a headphone system comprising an audio driver for outputting an incoming audio signal to the ears; and at least one acoustical port configured to deliver haptic and audible vibrations to the ear, the haptic and audible vibrations being associated with an acoustic resonance generated in a chest cavity of the user based on the audio signal.

The invention relates to a microphone assembly (1) comprising a first housing part (2), a second housing part (3), a microphone capsule (4) and a printed circuit board (5), the microphone capsule (4) and the printed circuit board (5) being received in an inner space (6) of a housing (7) formed by the two housing parts (2, 3), which comprises a viewing part (8) that can be connected to the housing (7), as well as at least one first elastic clip element (9) for attaching the microphone assembly (1) to an interior lining.

The invention relates to a microphone assembly (1) comprising a first housing part (2), a second housing part (3), a microphone capsule (4) and a printed circuit board (5), the microphone capsule (4) and the printed circuit board (5) being received in an inner space (6) of a housing (7) formed by the two housing parts (2, 3), which comprises a viewing part (8) that can be connected to the housing (7), as well as at least one first elastic clip element (9) for attaching the microphone assembly (1) to an interior lining.

Apparatus and methods for bone conduction detection are disclosed herein. An example wearable device includes a first sensor positioned to generate first vibration information from a bone structure of a user and a second sensor positioned to generate second vibration information from the bone structure of the user. The first vibration information and the second vibration information include sound data and motion data. The motion data is indicative of a motion by the user. The example wearable device includes a signal modifier to generate a modified signal including the sound data based on the first vibration information and the second vibration information. The example wearable device includes a communicator to transmit the modified signal for output via a speaker.

Embodiments include a system for enhancing an audio listening experience, the system comprising an electrical device configured to impart vibrations, to a chest area of a user, based on an incoming audio signal and detect an acoustic resonance generated in a chest cavity of the user as a result of the vibrations; and an acoustic system configured to output the incoming audio signal in synchrony with the vibrations imparted to the chest cavity and simultaneously deliver haptic and audible vibrations associated with the acoustic resonance to the ears of the user. Embodiments also include a headphone system comprising an audio driver for outputting an incoming audio signal to the ears; and at least one acoustical port configured to deliver haptic and audible vibrations to the ear, the haptic and audible vibrations being associated with an acoustic resonance generated in a chest cavity of the user based on the audio signal.

Embodiments include a system for enhancing an audio listening experience, the system comprising an electrical device configured to impart vibrations, to a chest area of a user, based on an incoming audio signal and detect an acoustic resonance generated in a chest cavity of the user as a result of the vibrations; and an acoustic system configured to output the incoming audio signal in synchrony with the vibrations imparted to the chest cavity and simultaneously deliver haptic and audible vibrations associated with the acoustic resonance to the ears of the user. Embodiments also include a headphone system comprising an audio driver for outputting an incoming audio signal to the ears; and at least one acoustical port configured to deliver haptic and audible vibrations to the ear, the haptic and audible vibrations being associated with an acoustic resonance generated in a chest cavity of the user based on the audio signal.