A system includes a hearing instrument and a case configured to store at least a portion of the hearing instrument. The hearing instrument includes a speaker configured to generate a sound wave, and at least one magnetic component that includes one or more of a coil configured to generate a current in response to detecting an alternating magnetic field, a magnetic shield configured to provide an electromagnetic shield for one or more components of the hearing instrument, a crosspin configured to provide a structural support between two opposing sides of the hearing instrument, a battery, or a charging contact configured to electrically couple the battery to a power source. The case includes a retention magnet configured to generate a static magnetic field that detachably couples at least the portion of the hearing instrument with the case by attracting the magnetic component of the hearing instrument to the case retention magnet.

A cochlear external device with an external microphone according to an embodiment of the present disclosure may include an external device body attached to a side of the head of a user, an internal microphone embedded in the external device body to collect sound, an external microphone located at the outside of the external device body to be attached around the ear of the user to collect sound, a connection cable configured to connect the external microphone and the external device body in a wired manner; and a control unit embedded in the external device body to generate an output signal based on the sound collected by at least one of the internal microphone and the external microphone and transmit the generated output signal to a cochlear implant transplanter.

The present disclosure relates to a hearing aid and detachable speaker unit assembly. The detachable speaker unit assembly comprises a fastening structure to provide an enhanced removal force and stable insertion into the ear canal of the user.

A hearing aid design is described that compartmentalizes hearing aid components for easier use and better operation. In one embodiment, the processing circuitry and transducers are disposed in housing designed to placed in the ear canal so as to be isolated from antennas and sources of noise. In one embodiment, the battery is moved out of the canal in a behind-the-ear housing so that the remaining components in the ear canal are smaller so as to improve fit rate.

Pairing systems for pairing external devices to a cochlear implant system can comprise an external housing and an external pairing system. The external housing may comprise a first surface and one or more compartments, each configured to house an external device capable of wirelessly interfacing with an implantable cochlear implant system. The external pairing device may comprise a second surface and one or more corresponding near field communication devices. The near field communication devices may be arranged such that the first surface of the external housing can be aligned with the second surface of the external pairing device in such a way that each of the near field communication devices aligns with a corresponding compartment of the external housing. The external pairing device can provide communication between a programming device and external devices contained within compartments of the external housing via one or more corresponding near field communication devices.

An exemplary cochlear implant system for use by a recipient includes a microphone assembly and an off-the-ear (OTE) sound processor communicatively coupled with the microphone assembly. The microphone assembly includes a microphone configured to capture an audio signal representative of sound presented to the recipient, and a retention device configured to hold the microphone in place near an entrance to an ear canal of an ear of the recipient. The OTE sound processor includes a housing configured to be worn on a head of the recipient at a location that is off the ear of the recipient, and electronic circuitry included within the housing. The electronic circuitry is configured to generate stimulation parameters that, when transmitted to a cochlear implant implanted within the recipient, direct the cochlear implant to apply electrical stimulation representative of the captured audio signal to the recipient. Corresponding systems and methods are also disclosed.

A holder extends from a part fixed to a housing and curves in substantially S-shape. A portion that extends from the housing and significantly curves for the first time serves as an ear-hanging part. The ear-hanging part is a portion that is hanged on an upper part of an auricle of a user. A portion that curves from the ear-hanging part so as to protrude toward a transmitting surface serves as a holding part. That is, the holding part is a portion that is formed at a position opposed to the transmitting surface and that is closest to the transmitting surface. A grasping part that can be curved, as needed, so as to be slightly distanced away from the transmitting surface is provided further toward the end from the holding part. The grasping part is a portion at which the user grasps the holder, the grasping part being so held allowing for easy attachment to and detachment from the auricle.

A BTE prosthetic device for use in a medical system or prosthesis comprises a connector configured to mechanically attach an auxiliary device of the system to the BTE prosthetic device. The connector is electrically connected to a transceiver of the BTE prosthetic device. The connector operates as an electromagnetic antenna for transmitting and/or receiving signals between the BTE prosthetic and other components of the medical system.

A monaural hearing device includes: a first housing accommodating a first near-field magnetic induction communication unit and a first magnetic field antenna connected to the first near-field magnetic induction communication unit, wherein the first housing is configured for placement behind an ear of a user of the monaural hearing device; and a second housing accommodating a second near-field magnetic induction communication unit and a second magnetic field antenna connected to the second near-field magnetic induction communication unit; wherein the first and second near-field magnetic induction communication units connected to the first and second magnetic field antennas, respectively, are configured to perform near-field wireless data communication with each other.

An external device of a prosthesis, including an electronics component, which can be a sound processor of a hearing prosthesis, and a power component, which can be a battery, the power component being removably attached to the electronics component, wherein the BTE device is configured with electrostatic discharge protection between the electronics component and the power component.