A Personal Sound Amplification System is provided includes a Personal Sound Amplification Device (PSAD) which includes a PSAD module body which defines a PSAD module body cavity for containing PSAD electronics, wherein the PSAD electronics include at least one PSAD microphone configured to receive a sound input and generate a microphone signal, a PSAD amplifier configured generate a processed microphone signal and a PSAD speaker configured to receive the processed microphone signal and generate a sound output; an external sound tube, wherein the external sound tube is associated with the PSAD module body; and a jewelry attachment device, wherein the jewelry attachment device is removably associated with the PSAD module body front and configured to magnetically associate with a decorative jewelry cover.

Embodiments of the invention include a method of preventing ferrite migration in a hearing aid including an antenna stack and a battery stack wherein the antenna stack sits on the battery stack, the method comprising the steps of: conformally coating the top and sides of the antenna stack using a conformal coating material; and separately coating all the surfaces of the battery stack using a separate material.

A hearing aid and related systems and methods are disclosed. In one implementation, a system may comprise a microphone and a processor. The processor may be configured to receive an original audio signal representative of sounds captured by the microphone; determine that the original audio signal includes a voice of the user; process the original audio signal according to a first processing scheme to generate a first processed audio signal; transmit the first processed audio signal to a hearing interface device after a first time delay associated with the first processing scheme; determine that the original audio signal includes an additional sound; process the original audio signal according to a second processing scheme to generate a second processed audio signal; and transmit the second processed audio signal to the hearing interface device after a second time delay associated with the second processing scheme.

An in-the-ear hearing aid device is disclosed. The device at least one electro-acoustic transducer, and at least one sensor or at least one active electronic component. The at least one electro-acoustic transducer comprises a capsule enclosing a transducer sound active part and a transducer air volume. The transducer air volume is air volume which is enclosed by said capsule and which is in fluid-connection with said transducer sound active part. At least a portion of said at least one sensor or of said at least one active electronic component is provided within said transducer air volume.

An ear-wearable device is described that includes a plurality of modules that mate together forming a physical outer shell of the ear-wearable device. Each module from the plurality of modules is associated with a different, corresponding feature of the ear-wearable device and each module from the plurality of modules includes a respective physical portion that comprises a different, corresponding part of the outer shell. In addition, each module from the plurality of modules shares a physical interface with at least one other module from the plurality of modules.

The present disclosure provides for an arrangement of components within a hearable device, such as earbuds, to reduce H field coupling for E noise improvement. A battery is positioned above a magnet and speaker, such that the battery is not coaxially aligned with either the magnet or the speaker. An internal positive tab of a battery is positioned farthest from a speaker yoke, while an internal negative tab of the battery is closer to the speaker yoke. Magnetic flux poles of a contact magnet have different contributions for electric field coupling.

A hearing device includes: a multi-chip assembly including a plurality of integrated circuit chips, the plurality of integrated circuit chips including one or a combination of a wireless communication chip, a power management chip, and a signal processing chip; wherein the multi-chip assembly comprises: a first layer having a surface, a spacer layer being configured to accommodate one or more of the plurality of integrated circuit chips as one or more embedded chips, and a ground layer below the first layer and the spacer layer, and a first shielding layer between the spacer layer and the first layer.

A hearing device adapted to be worn by a wearer comprises a shell configured for placement on an exterior surface of an ear of the wearer. The shell comprises a first end, a second end, a bottom, a top, and opposing sides, wherein the bottom, top, and opposing sides extend between the first and second ends. Circuitry is provided within the shell comprising at least a microphone, signal processing circuitry, radio circuitry, and a power source. A folded antenna is coupled to the radio circuitry and extends longitudinally along one of the bottom and the top and along the opposing sides between the first and second ends. The folded antenna encompasses at least some of the circuitry and forms an elongated gap between the opposing sides. The elongated gap faces the other of the bottom and the top.

A hearing device includes a housing elongated along a longitudinal axis, having an oval cross section, and configured to house electrical components. A loudspeaker disposed outside the housing in an intended wearing state of the hearing device is interconnected with at least a part of the electrical components. A plug connector is connected to the loudspeaker and carries at least six contact elements for interconnecting the loudspeaker with corresponding electrical components. A plug connector receptacle for receiving the plug connector interconnects the contact elements. The plug connector receptacle is disposed in a surface of the housing oriented toward a lower side in the intended wearing state. The plug connector and the plug connector receptacle define a plug-in direction extending from a front side to a rear side in the intended wearing state.

A cochlear implant system includes: an electrode array implanted within a cochlea; an internal processor in communication with the electrode array; an implanted antenna which is electrically coupled to the internal processor; and a modular external headpiece which is removably positioned over the implanted antenna, the modular external headpiece including a core containing a sound processor for processing sound and providing a corresponding signal to the implanted antenna; and a modular component configured to releasably engage the core and supply electrical power to the core. A modular speech processor headpiece includes a core comprising a microphone and sound processor for producing a signal representing ambient sound to be transmitted to a cochlear implant, the core further comprising a number of electrical contacts; and a modular component containing a number of electrical contacts corresponding to the electrical contacts of the core; wherein the core is configured to engage with the modular component such that electrical communication is made between the core and the modular component.