Abstract: A method for deriving information for setting a fitting parameter of a cochlear implant, wherein the cochlear implant includes an electrode array having a plurality of stimulating electrode contacts. The method includes modelling an interface between an electrode contact of the electrode array and a cochlear tissue as a corresponding electrical circuit comprising a resistive component representative of Faradaic resistance at the interface; determining at least an impedance value corresponding to the resistive component; obtaining an indication of a value of a fitting parameter for the electrode contact by mapping the determined impedance value to a mathematical model relating the fitting parameter to the impedance.

Abstract: A stapedius muscle recording electrode arrangement is described having one or more wire electrodes with an inner conducting wire covered by an outer layer of electrical insulation. There is an electrode opening in the electrical insulation that exposes underlying conducting wire. A curved needle has a tip configured for insertion into stapedius muscle tissue, and a base end coupled to the at least one wire electrode. The wire electrode and the needle are configured for insertion of the curved needle through the stapedius muscle tissue or between the stapedius muscle surface and the inner bony surface of the pyramidal eminence to embed the wire electrode in the stapedius muscle tissue or between the stapedius muscle surface and the inner bony surface of the pyramidal eminence for electrical interaction of the conducting wire at the electrode opening with the stapedius muscle tissue.

Abstract: A method for adjusting a parameter on a consumer electronics device is arranged for outputting a hearing loss compensated signal having a plurality of parameters. The consumer electronics device comprises processing means arranged for processing an audio input signal and for generating an audio output signal which is a hearing loss compensated version of the audio input signal. The method comprises producing with the consumer electronics device the audio output signal to be presented to a user. A rotation applied to the consumer electronics device such that the rotation is in a first direction in a substantial horizontal plane and, adjusting at least one parameter relates to the audio output signal's dynamic range, whereby the rotation in the first direction corresponds to a reduction of the dynamic range and a rotation in a direction opposite to the first direction to an increase of the dynamic range, or vice versa.

Abstract: A method for adjusting a parameter on a consumer electronics device is arranged for outputting a hearing loss compensated signal having a plurality of parameters. The consumer electronics device comprises processing means arranged for processing an audio input signal and for generating an audio output signal which is a hearing loss compensated version of the audio input signal. The method comprises producing with the consumer electronics device the audio output signal to be presented to a user. A rotation applied to the consumer electronics device such that the rotation is in a first direction in a substantial horizontal plane and, adjusting at least one parameter relates to the audio output signal's dynamic range, whereby the rotation in the first direction corresponds to a reduction of the dynamic range and a rotation in a direction opposite to the first direction to an increase of the dynamic range, or vice versa.

Abstract: A personal communication device provides hearing support, and includes an input receiving an audio signal, a programmable processor, and an output outputting the processed signal. The programmable processor performs a filtering operation on a digital version of the audio signal in a first signal path based on parameter settings and provides control logic that determines the parameter settings based on information on user preferences, on audiological information and on information on the listening situation to provide hearing loss compensation. The programmable processor has a second signal path in parallel with the first signal path that receives the digital version of the audio signal and parameter settings and determining the filter coefficients of the filtering operation based on the parameter settings and the digital version of the audio signal.

Abstract: A personal communication device provides hearing support, and includes an input receiving an audio signal, a programmable processor, and an output outputting the processed signal. The programmable processor performs a filtering operation on a digital version of the audio signal in a first signal path based on parameter settings and provides control logic that determines the parameter settings based on information on user preferences, on audiological information and on information on the listening situation to provide hearing loss compensation. The programmable processor has a second signal path in parallel with the first signal path that receives the digital version of the audio signal and parameter settings and determining the filter coefficients of the filtering operation based on the parameter settings and the digital version of the audio signal.

Abstract: A combined set including a vibration actuator and an implantable device provided to be implanted in an inner ear part is disclosed. The implantable device has a surface in contact with an inner ear fluid when inserted in said inner ear part. The implantable device includes a frame having an inner wall and a slidably movable member having an outer wall which is connected to the vibration actuator. The slidably movable member is provided for transferring energy supplied by the vibration actuator from and towards the inner ear fluid by means of a translational movement. The slidably movable member is at least partially mounted inside the frame in such a manner that a gap extending between the inner wall of the frame and the outer wall of the member is less than or equal to 0.1 mm.

Abstract: A combined set (71) comprising a vibration actuator and an implantable device to be used as an artificial fenestrum implantable in a bony wall (25) of an inner ear, said device comprising a frame (32) made of a bio-compatible material and provided to be applied at least partially in said bony wall, said frame being provided with a wall part formed by a membrane (27) forming a barrier with a perilymph of said inner ear when applied in said bony wall, said membrane being provided to form together with said frame an interface with said inner ear, said interface being provided for energy transfer towards and from said inner ear, said membrane being electrically dissociated from said vibration actuator and provided for receiving vibration energy from said vibration actuator.

Abstract: A combined set including a vibration actuator and an implantable device provided to be implanted in an inner ear part is disclosed. The implantable device has a surface in contact with an inner ear fluid when inserted in said inner ear part. The implantable device includes a frame having an inner wall and a slidably movable member having an outer wall which is connected to the vibration actuator. The slidably movable member is provided for transferring energy supplied by the vibration actuator from and towards the inner ear fluid by means of a translational movement. The slidably movable member is at least partially mounted inside the frame in such a manner that a gap extending between the inner wall of the frame and the outer wall of the member is less than or equal to 0.1 mm.