Disclosed wireless systems, devices, and methods can leverage existing hardware for BLE communications to provide a low-latency streaming (LLS) link suitable for supporting CROS and BiCROS features in hearing aids. An illustrative embodiment of a low-latency audio streaming method includes: (a) sending intermittent packets of digital audio data as a wireless signal; and (b) for each intermittent packet: (A) listening for a responsive packet; and (B) sending the digital audio data in a retransmitted packet only if no responsive packet is detected. Any retransmitted packet that is sent follows the corresponding intermittent packet with a delay no greater than a length of two interframe spacing (IFS) intervals separated by a responsive packet. An illustrative embodiment of a low-latency audio streaming device includes a transmit chain and a receive chain. The transmit chain periodically transmits intermittent packets of digital audio data as a wireless signal. The receive chain operates to detect a responsive packet to each intermittent packet. The transmit chain retransmits a packet of digital audio data each time the receive chain fails to detect a responsive packet, ensuring a delay no greater than a length of two IFS intervals separated by a responsive packet.

A hearing assistance system having a first hearing device worn at a first of a user's ears, a second hearing device worn at a second of the user's ears, and an external audio source device for transmitting an external audio data stream, each hearing device having an interface for wireless data exchange with the external device, including receipt of the external audio data stream, the hearing devices being adapted to establish a binaural link between the first and second hearing devices, the hearing assistance system being adapted to estimate the quality of at least one of the links from the external device to the hearing devices. The hearing assistance system is adapted to dynamically adjust the coding of the audio stream transmitted by the external device according to the estimated quality of the at least one of the links from the external device to the hearing devices.

A method transmits an audio signal from a transmitter to a receiver and a hearing device, particularly a hearing aid, contains a communication facility which is provided and configured for transmitting and/or receiving an audio signal according to the method. A hearing device system has two hearing devices and is provided and configured to transmit audio signals between the two hearing devices by their communication facilities according to the method.

The invention relates to a biomimetic microphone, a product comprising at least one biomimetic microphone, such as a hearing implant, wherein the hearing implant may comprise a cochlear implant, or a vibrating implant, or both, a method of operating a hearing implant, and a hearing implant computer program comprising instructions for operating the hearing implant.

A hearing assistance system having a first hearing device worn at a first of a user's ears, a second hearing device worn at a second of the user's ears, and an external audio source device for transmitting an external audio data stream, each hearing device having an interface for wireless data exchange with the external device, including receipt of the external audio data stream, the hearing devices being adapted to establish a binaural link between the first and second hearing devices, the hearing assistance system being adapted to estimate the quality of at least one of the links from the external device to the hearing devices. The hearing assistance system is adapted to dynamically adjust the coding of the audio stream transmitted by the external device according to the estimated quality of the at least one of the links from the external device to the hearing devices.

A hearing prosthesis includes: a hearing loss processor configured to process an audio signal and compensate a hearing loss of a user of the hearing prosthesis, and output a hearing loss compensated audio signal based on the audio signal; an output transducer configured to convert the hearing loss compensated audio signal into an auditory output signal to be received by a human auditory system of the user; a near-field magnetic induction communication unit configured for wireless communication; and a magnetic field antenna operatively connected with the near-field magnetic induction communication unit; wherein at least a part of the magnetic field antenna is embedded in a multi-layer printed circuit board.

An audio signal is transmitted from a transmitter to a receiver in a hearing device, particularly a hearing aid. A communication facility configured for transmitting and/or receiving the audio signal. A hearing device system has two hearing devices configured to transmit audio signals between the two hearing devices by way of their communication facilities in accordance with the method.

A hearing device comprises: a transceiver module configured to receive a contralateral directional input signal from the contralateral hearing device; a first BTE microphone for provision of a first BTE microphone input signal; a second BTE microphone for provision of a second BTE microphone input signal; a first MIE microphone for provision of a first MIE microphone input signal; a first beamformer for provision of a directional input signal based on the first BTE microphone input signal and the second BTE microphone input signal; a second beamformer for provision of a binaural beamform signal based on a binaural transfer function, the directional input signal, and the contralateral directional input signal; a spatializer for provision of a spatial binaural beamform signal based on the binaural beamform signal and a spatialization transfer function; and a processor configured to provide an electrical output signal based on the spatial binaural beamform signal.

The hearing aid apparatus includes a first hearing aid member and a second hearing aid member. The first hearing aid member is placeable on a patient's body, and includes a first transducer for receiving sounds that would be received by the patient's first ear and converting these received sounds into first transmittable signals. The second hearing aid is placeable on a patient's body adjacent to the patient's second ear, and includes a receiver for receiving the first transmittable electrical signals and a second transducer for converting the first transmittable electrical signals into sound signals configured for delivery to the patient's second ear.

An exemplary spatial enhancement system performs frequency-specific localization and speech comprehension enhancement. Specifically, the system receives an audio signal presented to a recipient of a hearing device, and generates, based on the audio signal, a first frequency signal and a second frequency signal. The first frequency signal includes a portion of the audio signal associated with a first frequency range, and the second frequency signal includes a portion of the audio signal associated with a second frequency range. Based on the first and second frequency signals, the system generates an output frequency signal that is associated with the first and second frequency ranges and that is configured for use by the hearing device in stimulating aural perception by the recipient. This generating of the output frequency signal includes processing the first frequency signal to apply a localization enhancement and processing the second frequency signal to apply a speech comprehension enhancement.