A system may obtain data related to hearing instruments, such as data indicating answers of a user to a questionnaire or historical usage data of the hearing instruments. For each respective feature of one or more features, the system may determine a feature duty cycle corresponding to an amount of time during a period in which the respective feature is anticipated to be active based on the data related to the hearing instruments. The system may further determine an energy cost for the respective feature at least based on the respective feature duty cycle for the respective feature and a power consumption rate of the respective feature. The system may calculate a battery life of one or more batteries in the hearing instruments at least based on the energy costs for each feature of the one or more features.

There is provided a hearing aid with an antenna connected to a transmission and/or reception circuit for transmission and/or reception of the electromagnetic energy via the antenna. A coupling circuit, e.g. including a directional coupler, is configured to sense an electric return power from the antenna, and to generate a power signal based on the sensed electric return power. A controllable impedance circuit is connected to the antenna, so as to allow adjusting of impedance of the antenna in at least two different steps. A processor is configured to generate a tuning control signal to the controllable impedance circuit in response to the power signal. This allows control of the impedance of the antenna for minimizing impedance mismatch, and thus improve performance of the antenna by tuning the impedance to the operating conditions of the antenna, preferably in an automatic manner.

An aural iris includes a lumen and an actuator coupled on or in or to the lumen for at least partially attenuating sound traversing through the lumen by selectively actuating the actuator on and off. Other embodiments are disclosed.

A method, including capturing an individual's voice with a machine, and logging data corresponding to events and/or actions of the individual's real world auditory environment, wherein the individual is speaking while using a hearing assistance device, and the hearing assistance device at least one of corresponds to the machine or is a device used to execute the action of logging data.

Systems and methods for processing an audio signal are provided for server-mediated sound personalization on a plurality of consumer devices. A user hearing test is conducted on one of a plurality of audio output devices. Next, the hearing data of the user's hearing test is outputted to a server and stored on the server's database along with a unique user identifier. Next, a set of DSP parameters for a sound personalization algorithm are calculated from the user's hearing data. The DSP parameter set is then outputted to one of a plurality of audio output devices when the user logs in with their unique identifier on an application on the audio output device.

A method for operating a hearing system having a hearing aid and a mobile device includes using at least one microphone of the hearing aid to record and convert sound signals into associated electrical microphone signals. The microphone signals are checked for the presence of speech components. Existing speech components are examined by using voice recognition and a voice profile thus recognized is assigned to a specific speaker. The mobile device is used to obtain additional information about the specific speaker that goes beyond personal information and the information is presented to a user of the hearing system. A hearing system for performing the method is also provided.

For the fitting of a hearing instrument, an audio signal of an ambient sound, recorded by way of an input transducer, is modified according to a multiplicity of signal processing parameters. Via a first classifier, a user of the hearing instrument is offered a plurality of problem descriptions for the user to select. By way of a second classifier, a proposed solution for modified values of the signal processing parameters is determined based on the user's selection of one of the offered problem descriptions.

A speaker of a hearing instrument generates a sound that includes a range of frequencies. Furthermore, a microphone of the hearing instrument measures an acoustic response to the sound. A processing system classifies, based on the acoustic response to the sound, a depth of insertion of an in-ear assembly of the hearing instrument into an ear canal of a user. Additionally, the processing system generates an indication based on the depth of insertion of the in-ear assembly of the hearing instrument into the ear canal of the user.

An electronic device with a display is paired with a set of wireless audio output devices, including a first wireless audio output device for outputting audio to a right ear of a user and a second wireless audio output device for outputting audio to a left ear of the user. In response to a request to display status information about the set of wireless audio output devices, the electronic device displays a status user interface, including concurrently displaying a first battery status indicator for the first wireless audio output device with an indication that battery status indicator relates to the device for outputting audio to the right ear of the user and a second battery status indicator for the second wireless audio output device with an indication that battery status indicator relates to the device for outputting audio to the left ear of the user.

The invention relates to a method for enhancing the configuration of a hearing aid device (2) of a user, said method using an external configuration unit (3) accessing a database of previously known user records, wherein the hearing aid device (2) is arranged to be configured according to an individual set of configuration parameters