A method for operating a hearing system is specified. The hearing system includes a hearing aid, which is worn by a user. The hearing system includes an auxiliary device, which includes a camera, by which a real-time image is recorded of a current environment. The auxiliary device includes a display screen, on which the real-time image is output, so that the environment is displayed on the display screen. The hearing aid transmits an item of information to the auxiliary device, which is linked to a section of the environment and is thus an item of information with respect to this section. The information is also displayed on the display screen, in that an image element is generated and is overlaid with the real-time image in such a way that it is recognizable for the user with which section of the environment the information is linked.

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.

A method for operating a hearing aid comprises: acquiring a sound signal; classifying the acquired sound signal with respect to predefined sound classes, wherein a raw class mixing weighting is determined, in which the sound signal is weighted with respect to the sound classes; processing the sound signal with at least one actuator, wherein the actuator processes the sound signal based on an actual actuator parameterization, wherein each sound class comprises a sound class actuator parameterization for each actuator, and the actual actuator parameterization for each actuator is generated by mixing the sound class actuator parameterization of the sound classes based on the raw class mixing weighting; and outputting the processed sound signal to be perceived by the user of the hearing aid.

A method for operating a hearing system is specified. The hearing system includes a hearing aid, which is worn by a user. The hearing system includes an auxiliary device, which includes a camera, by which a real-time image is recorded of a current environment. The auxiliary device includes a display screen, on which the real-time image is output, so that the environment is displayed on the display screen. The hearing aid transmits an item of information to the auxiliary device, which is linked to a section of the environment and is thus an item of information with respect to this section. The information is also displayed on the display screen, in that an image element is generated and is overlaid with the real-time image in such a way that it is recognizable for the user with which section of the environment the information is linked.

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.

Various embodiments of a hearing device including an image sensor are disclosed. The hearing device can include a housing, a user sensory interface connected to the housing, an image sensor connected to the housing, and an acoustic sensor connected to the housing. The device can also include a processor that is adapted to process image data from the image sensor to identify an image object, process acoustic data from the acoustic sensor, and determine a spatial location of the image object based upon at least one of the processed image data and the processed acoustic data. The processor can also be adapted to provide the spatial location to the user sensory interface, which can provide a sensory stimulus to the user that is representative of the spatial location of the image object.

Disclosed is a multi-mode beam former, comprising a device for receiving a multi-mode input signal, and a device for constructing an optimization model and solving the optimization model to obtain a beam-forming weight coefficient for performing linear or non-linear combination on the multi-mode input signal. The optimization model comprises an optimization formula for obtaining the beam-forming weight coefficient. The optimization formula comprises: establishing an association between at least one electroencephalogram signal and a beam forming output, and optimizing the association to construct the beam-forming weight coefficient associated with the at least one electroencephalogram signal.

A hearing device may include a housing configured to be at least partially inserted into an ear canal of a user and comprising a venting channel, wherein the venting channel is configured to provide for venting between an inner region of the ear canal and an ambient environment outside the ear canal through the venting channel; an acoustic valve comprising a valve member moveable relative to the venting channel between different positions; a sound detector configured to provide an audio signal representative of a detected sound; a processor configured to determine a characteristic from the audio signal and to classify the audio signal by assigning the audio signal to a class from a plurality of predetermined classes depending on the determined characteristic; and an output transducer configured to be acoustically coupled to the inner region of the ear canal.

A hearing aid (10) and method for use of the same are disclosed. In one embodiment, the hearing (10) includes a body (112) that at least partially conforms to the contours of the external ear and is sized to engage therewith. Various electronic components are contained within the body (112), including an electronic signal processor (130) that is programmed with a preferred hearing range, which may be an about 10 Hz frequency to an about 30 Hz frequency range of sound corresponding to highest hearing capacity of a patient. Sound received at the hearing aid (10) is converted to the preferred hearing range prior to output.

A hearing device configured to be worn at a head of a user. The hearing device includes a vibration sensor to detect a vibration conducted through the user's head to the hearing device and to output a vibration signal including information about the vibration. At least part of the vibration can be caused by an own voice activity of the user. A method of operating the hearing device allows a reliable own voice detection at rather low processing effort. The processor determines a presence of an own voice characteristic in the vibration signal at a vibration frequency associated with the own voice characteristic and identifies the own voice activity based on an identification criterion including the presence of the own voice characteristic in the vibration signal at the associated vibration frequency. The own voice characteristic indicative of part of the vibration can be caused by the own voice activity.