Abstract: An in-ear optical sensor device sits deep within the ear canal of a subject such that is in the cartilaginous region and/or the bony region of the ear canal where effects from temporomandibular joint activity or other movement, and external light, are limited. The device has a lateral housing and a medial articulating head joined at an articulation joint so that the medial articulating head may be angled relative to the lateral housing to help the device fit within tortuous ear canals. The device also includes a seal configured to conform to the shape of the ear canal to physically support the device to further limit movement and block environmental light. An audio receiver is also included in the device.

Abstract: An exemplary hearing device configured to facilitate hearing by a user may comprise an in-the-ear (“ITE”) component comprising a shell having a contoured outer surface configured to fit at least partially within an ear canal of the user. The contoured outer surface of the shell may include a first region having a first modulus of elasticity and a second region having a second modulus of elasticity that is different than the first modulus of elasticity. The first region and the second region may be formed of a same material.

Abstract: A hearing device comprises basic modifiers adjustable by a user, each basic modifier having a range of basic modifier values selectable by the user and each basic modifier modifying a sound processing of the hearing device dependent on the respective basic modifier value. A method comprises: receiving a macro modifier value for a macro modifier, wherein the macro modifier is associated with a subset of the basic modifiers and wherein the macro modifier value is selected by the user from a macro modifier range; calculating, for each basic modifier in the subset, a basic modifier value, wherein the basic modifier value is calculated with a predefined function based on the macro modifier value; applying the calculated basic modifier values to the basic modifiers such that the sound processing of the hearing device is performed based on the basic modifiers adjusted with the calculated basic modifiers values.

Abstract: A method for adjusting a gain of a hearing device includes receiving a demand for increasing a treble of an output sound signal; determining a frequency dependent headroom curve, the headroom curve indicating up to which gain value a frequency of the sound signal is amplifiable; comparing the headroom curve with a gain curve; when the gain curve is below the headroom curve, increasing the gain curve in a treble range; and when the gain curve has reached the headroom curve in the treble range, frequency lowering the sound signal, such that frequencies of the sound signal are moved from the treble range into a middle range of frequencies below the treble range.

Abstract: A communication device, including a wireless interface including a transceiver unit, and a controller configured to control the transceiver unit when applying a first protocol which is a Bluetooth Low Energy protocol and a second protocol which is suitable for exchanging both audio data and non-audio data. The controller is further configured to apply a first control configuration while the transceiver unit is not used for audio data reception and/or transmission of audio data via the second protocol, and to apply a second control configuration while the transceiver unit is used for audio data reception and/or transmission of audio data via the second protocol. In the second control configuration duration of BLE connection events is limited to a maximum duration shorter than the maximum duration of BLE connection events in the first control configuration.

Abstract: A method for adjusting a hearing device includes: receiving an input sound signal; identifying a listening situation; selecting at least one hearing program from a plurality of hearing programs in dependence of the identified listening situation; processing the input sound signal using the at least one selected hearing program to generate a processed sound signal and providing the processed sound signal to a user of the hearing device; receiving an adjustment command for the one or more processing parameters; determining a change rate at which the listening situation changes; when the change rate is above a predefined threshold, applying the one or more adjusted processing parameters to a possible set of hearing programs from the plurality of hearing programs; and when the change rate is below the predefined threshold, applying the one or more adjusted processing parameters to the at least one selected hearing program.

Abstract: A custom fit hearing device that includes an in-ear housing designed to fit at least partially in a hearing device user's ear canal. The in-ear housing includes one or more areas on its outer-surface that are designed to provide retention of the in-ear housing in the ear canal. The one of more area may be rougher than the rest of the outer-surface of the in-ear housing, may have greater a friction coefficient than the rest of the outer-surface of the in-ear housing, may be made of a different material than the rest of the outer-surface of the in-ear housing, may contain granular material and/or may include surface features such as shapes extending outward from the outer-surface or undulations/ripples in the outer-surface. The in-ear housing may be produced using virtual designs and a 3D scan of the ear canal and may be manufactured using additive manufacturing or 3D printing.

Abstract: Systems and methods for two-way communication with a hearing device are disclosed. In one embodiment, an accessory for communication with a hearing device includes an acoustic filter, and a microphone configured as an acoustic receiver (RX) for acoustic signals from a speaker of the hearing device via the acoustic filter. The acoustic filter is configured to operate at at least one resonance frequency. The accessory is in acoustic and magnetic communication with the hearing device.

Abstract: The disclosure relates to a hearing device comprising a housing accommodating an acoustic transducer inside an inner volume of the housing, the acoustic transducer having an oscillator element configured to generate sound waves, the housing accommodating the acoustic transducer inside an inner volume of the housing. The hearing device further comprises a sound outlet configured to release sound waves from the inner volume into an ear canal. The hearing device may also comprise a microphone configured to be acoustically coupled to the ear canal, and an active feedback control circuit configured to provide an active feedback control signal to modify the sound waves generated by the acoustic transducer.

Abstract: The disclosed technology relates to securely sharing data between a hearing care professional (HCP) and a hearing device user. For example, the disclosed technology relates to securely accessing fitting data for a hearing device. The disclosed technology includes a hearing device that has a memory, where the memory stores a key that can be used for encryption and decryption. The key can be a symmetrical key. In addition to storing a key, the hearing device can store a uniform resource indicator (URI) in its memory.

Abstract: The disclosed technology includes a system and method for providing pairing information to assist in pairing devices for wireless communication. For example, the disclosed technology includes a method for visually displaying time remaining in pairing time windows for hearing aid devices. A hearing aid professional can view the displayed information on a computer, fitting station, or mobile device and then use this information to determine which devices can be paired or how much time is remaining to pair the device.

Abstract: A method for operating a hearing system worn by a user, the hearing system being a binaural hearing system including first and second hearing aids and being prepared for processing a sound. The processing includes a beamforming which can be adjusted to at least a first beamforming mode and a second beamforming mode. The method includes receiving sound by the hearing system, determining whether the beamforming is to be adjusted to the first beamforming mode or the second beamforming mode and adjusting the beamforming accordingly and generating a processed sound, and presenting the processed sound to the user.

Abstract: An earplug and method for attenuating sound. An acoustic canal extends straight through a housing to guide the sound inside an ear canal. The acoustic canal comprises a canal section dimensioned to fit at least partially inside the ear canal. The canal section ends at one side in a first exterior opening to let the sound into the ear canal. Another side of the canal section transitions into a first resonance volume with a relatively wide diameter. A second resonance volume ends at one side in a second exterior opening and, the other side being separated from the first resonance volume by a sound attenuating mesh. This provides resonance cavities that compensate attenuation of the mesh over a wide range of high frequencies.

Abstract: An illustrative hearing device includes a battery having a battery voltage, a microphone for transducing sound into an input signal, a processor configured to be operated with an operating voltage and to generate an output signal from the input signal, a speaker for transducing the output signal to an acoustic signal, and a valve. An acoustic effect of the valve is adjustable by applying a valve voltage, wherein the adjustment is controllable by the processor. The hearing device comprises a voltage regulator configured to generate the operating voltage from the battery voltage, wherein the operating voltage is less than the battery voltage and wherein the valve voltage is greater than the operating voltage.

Abstract: A method for adjusting at least one hearing device comprises: providing the at least one hearing device with basic sound classes, each basic sound class comprising an actuator parametrization with parameters for at least one actuator of the hearing device; collecting of adjustments of sound properties of at least one user of the at least one hearing device together with weightings of a sound signal acquired by the hearing device at which the adjustments have been made; analyzing the collected adjustments, whether same adjustments have been applied at same weightings; generating at least one supplementary sound class, when the same adjustments have been applied at a weighting, wherein the actuator parametrization of the supplementary sound class is a modified actuator parametrization based on the adjustments at the weighting.

Abstract: Hearing devices, configured to fit within the ear canal, having a hearing device core defining an exterior surface with a medial end and a medial corner, and including a battery, a microphone and a receiver, at least one seal, defining a seal compliance, carried on the hearing device core, and a medial bumper, defining a medial bumper compliance that is greater than the seal compliance, carried on the hearing device core.

Abstract: The present disclosure concerns an acoustic valve (10) for hearing protection. The valve (10) comprises a housing (1) that is placeable or integrated in an ear plug (100). The housing (1) comprises a sound passage (2) extending through the housing (1) for allowing at least partial transmission of sound from the external surroundings (11) into the auditory canal (13). The housing comprises an impulse filter (3) comprising a rigid plate (4). The rigid plate (4) forms an enclosed volume (12) within the sound passage (2) of the valve. The rigid plate (4) comprises at least one perforation (5) for passing part of the sound from the external surroundings (11) via the perforation (5) into the enclosed volume (12). The housing further comprises an acoustic filter (6) comprising a mesh (7) arranged in the sound passage (2) between the rigid plate (4) and the auditory canal (13).

Abstract: An acoustic filter including a valve system with acoustic valves arranged in a sound passage for controlling the acoustic resistance of respective apertures based on a control signal for selecting an attenuation of a sound pressure level of transmitted sound compared to that of received sound. The acoustic filter is adapted to provide the selection of the attenuation from a sequence of predetermined attenuations based on a selection of the control signal. Each attenuation in the sequence corresponds to acoustic valves providing the apertures with a respective predetermined acoustic resistance, wherein the acoustic resistances of subsequent attenuations in the sequence are adapted to correspond with a linear increase or decrease in the attenuation of the sound in decibels.

Abstract: The disclosed technology relates to a hearing aid system (HS) comprising a first hearing aid device (2), which is designed for arrangement in an ear canal (1.1), and a second hearing aid device (3), which is designed for arrangement near to the first hearing aid device (2), wherein the first hearing aid device (2) and the second hearing aid device (3) each comprise at least one microphone, one signal processing unit, one loudspeaker and one battery, such that both the first hearing aid device (2) and the second hearing aid device (3) can each function as a hearing aid device independently of the respective other of the hearing aid devices (2, 3). Furthermore, the disclosed technology relates to a method for operating the hearing aid system (HS).

Abstract: The disclosure relates to a hearing device configured to be worn at an ear of a user, the hearing device comprising a sensor unit configured to provide sensor data; and a communication unit configured to receive remote data from a remote device. The disclosure further relates to a communication system comprising the hearing device and the remote device and to a method of operating the hearing device and the remote device.