Abstract: A partially implantable hearing aid is provided, comprising an external audio signal unit to be worn at least in part in a user's ear canal, an implantable unit and external means for transmitting power transcutaneously to the implantable unit via an inductive link, the external audio signal unit comprising audio signal processing means for producing processed audio signals from input audio signals and means for transmitting the processed audio signals via an optical link through an ear drum to an optical receiver of the implantable unit, the implantable unit comprising an actuator for stimulating the user's hearing, a power receiving means and a driver unit for transforming the received audio signals into an input signal to the actuator.

Abstract: An insert structure is proposed for insertion into an orifice, a canal, a tube and the like of a human or animal creature such as an ear canal, an intestinal tract, a gullet, etc. The insert structure comprises at least one longitudinally extending insert member (3) and a plurality of at least nearly perpendicularly extending further members (5, 7, 9), placed longitudinally at a distance to each other along the insert member, the further members (5, 7, 9) being at least of a flexible and/or soft material.

Abstract: A partially implantable hearing aid is provided, comprising an external audio signal unit to be worn at least in part in a user's ear canal, an implantable unit and external means for transmitting power transcutaneously to the implantable unit via an inductive link, the external audio signal unit comprising audio signal processing means for producing processed audio signals from input audio signals and means for transmitting the processed audio signals via an optical link through an ear drum to an optical receiver of the implantable unit, the implantable unit comprising an actuator for stimulating the user's hearing, a power receiving means and a driver unit for transforming the received audio signals into an input signal to the actuator.

Abstract: Hearing aid fitted with a central processing unit (1) having peripherals (3E, 3A) connected to its input and output respectively. Each peripheral includes an identification unit (5) having an the output connected to a first input of a comparator (9). A second input of the comparator is connected to a read-only identification memory (11) containing identification features of the peripherals. An output of the comparator drives a configuration memory (15). As a result, the hearing aid self-identifies its current configuration based on the identification of the peripherals.

Abstract: The present invention provides a method of providing input parameters for the fitting process of individually shaped or customized hearing devices by storing geometry data during the manufacturing process into data storage and selectively reading out data from this data storage during the manufacturing and/or fitting process of the hearing device. To improve the quality and to reduce the time required for the fitting process, all the data available from the manufacturing process, e.g. the geometry data, may be used during the final fitting process at the dispenser's office.

Abstract: A hearing system has a first device and a second device. The first device acoustically couples to skin of a user of the hearing system and includes a sensor to detect acoustic signals. The second device includes a hearing stimulator arrangement to stimulate hearing of the user in response to the acoustic signals detected with the first device. The first device and second device are each operable to bidirectionally communicate through an ultrasonic communication link comprising at least a portion of the body of the user.

Abstract: The invention refers to hearing devices (1) and methods of operating hearing devices (1). In one aspect, the hearing device (1) comprises a power supply unit (2) comprising a primary energy storing unit (3) and, in addition, a secondary energy storing unit (4). The power supply unit (2) is configured such that the secondary energy storing unit (4) is rechargeable by means of the primary energy storing unit (3). E.g., the primary energy storing unit (3) has a higher energy density than said secondary energy storing unit (4), and the secondary energy storing unit (4) has a lower internal resistance than said primary energy storing unit (3). This allows to provide electronic circuits (11;12;13;14) of the hearing device (1) with pulsed currents. In another aspect, the hearing device (1) comprises at least one processor (10;13;14), which is alternately operated in one of at least two operating modes.

Abstract: An elongate hollow device for providing direct access to the cochlea of a recipient. The device has a symmetrical shape about a longitudinal axis through the center of the device, and comprises a first end having an aperture with its geometric center positioned at the longitudinal axis, and a distal end having an aperture with its geometric center positioned at the longitudinal axis, wherein the access device is configured to be at least partially positioned in the mastoid bone of the recipient such that the first end is positioned adjacent the surface of the mastoid bone, and the distal end is inserted into the cochlea.

Abstract: An insert structure is proposed for insertion into an orifice, a canal, a tube and the like of a human or animal creature such as an ear canal, an intestinal tract, a gullet, etc. The insert structure comprises at least one longitudinally extending insert member (3) and a plurality of at least nearly perpendicularly extending further members (5, 7, 9), placed longitudinally at a distance to each other along the insert member, the further members (5, 7, 9) being at least of a flexible and/or soft material.

Abstract: An in-the-ear hearing device comprises an outside body, which is at least in part of textile material (3). The textile material allows to optimally adapt shape and shape dynamics as well as biocompatibility to the respective characteristics of an individual ear canal.

Abstract: A hearing instrument in accordance with the invention comprises an in-the-ear-canal component to be worn at least partially in the ear of a user. When the hearing instrument is worn, a remaining volume between the in-the-ear-canal component and the user's eardrum is defined. The hearing instrument includes at least one first microphone operable to convert an acoustic input signal incident on the hearing instrument into an electrical input signal, signal processing means operable to convert the electrical input signal into an electrical output signal on a signal path, and an electrical-to-acoustic converter (a receiver or a plurality of receivers with potentially different frequency characteristics). Between the remaining volume and surrounding atmosphere, a duct (such as a vent) is defined. A second receiver is in operative communication with the duct, i.e. an output directly opens out into the duct or to a sound conductor opening out into the duct.

Abstract: The present invention relates to a method for recording information in a hearing device and/or in a recording unit at least temporally operationally connected to the hearing device. The method consists in that a point in time of the recording and/or a recording frequency as well as the information to be recorded, as data and/or parameters and/or adjustments of the hearing device are adjusted freely or are programmable, respectively. Furthermore, a hearing device is described that is suitable to use the method. By the present invention, a multitude of the parameters being adjustable in a hearing device can be checked or surveyed all together or selectively in real, i.e. actually existing acoustic environments in order to optimally adjust or adapt the hearing device afterwards, that means after the analysis by the fitter, for example.

Abstract: Hearing aid fitted with a central processing unit (1) having peripherals (3E, 3A) connected to its input and output respectively. Each peripheral includes an identification unit (5) having an the output connected to a first input of a comparator (9). A second input of the comparator is connected to a read-only identification memory (11) containing identification features of the peripherals. An output of the comparator drives a configuration memory (15). As a result, the hearing aid self-identifies its current configuration based on the identification of the peripherals.

Abstract: The invention relates to a method for operating a hearing system comprising an input unit, an output unit and a transmission unit operationally interconnecting said input output units. Said transmission unit implements a transfer function describing, how audio signals generated by said input unit are processed in order to derive audio signals fed to said output unit, and can be adjusted by one or more transfer function parameters. Said method comprises obtaining, by means of said input unit and with a first directional characteristic, first audio signals from incoming acoustic sound; deriving from said first audio signals a first set of sound-characterizing data; and deriving, in dependence of first directional information, which is data comprising information on said first directional characteristic, and of said first set of sound-characterizing data, a value for each of said one or more transfer function parameters.

Abstract: An adjustment method for a hearing device and an apparatus to do it are proposed, by which a model for the perception of a psycho-acoustic variable, especially of the loudness, is parametrized for a standard group of individuals (LN) as well as for an individual (LI). On grounds of model differences, especially in relation to their parametrization, the adjustment values are determined, whereas the signal transmission is planned or adjusted at a hearing device (HG) ex situ or is guided in situ, respectively.

Abstract: A remote control unit for wireless control of an electrical microdevice, such as a hearing aid or implanted medical device. An object worn or carried by a person, such as a wristwatch has a band attached thereto. A housing containing electronic circuitry of the remote control is arranged within the band. Operation elements, such as pushbuttons, are provided on the housing and project through the band or are operable through the band.

Abstract: The present invention provides a method of providing input parameters for the fitting process of individually shaped or customized hearing devices by storing geometry data during the manufacturing process into data storage and selectively reading out data from this data storage during the manufacturing and/or fitting process of the hearing device. To improve the quality and to reduce the time required for the fitting process, all the data available from the manufacturing process, e.g. the geometry data, may be used during the final fitting process at the dispenser's office.

Abstract: An in-the-ear hearing device comprises an outside body, which is at least in part of textile material (3). The textile material allows to optimally adapt shape and shape dynamics as well as biocompatibility to the respective characteristics of an individual ear canal.

Abstract: An insert structure is proposed for insertion into an orifice, a canal, a tube and the like of a human or animal creature such as an ear canal, an intestinal tract, a gullet, etc. The insert structure comprises at least one longitudinally extending insert member (3) and a plurality of at least nearly perpendicularly extending further members (5, 7, 9), placed longitudinally at a distance to each other along the insert member, the further members (5, 7, 9) being at least of a flexible and/or soft material.

Abstract: A hearing system includes a hearing device with an input acoustical/electrical converter. The system is controllably operable in at least first and second modes. A sensing unit senses behavior of an acoustical impedance of an acoustical input of the input converter. An evaluation unit evaluates the sensed behavior over at least one predetermined behavior of the acoustical impedance. An output of the evaluation unit controls change over from the first mode to the second mode.