Abstract: A cochlear implant implementing a directional sound processing system is provided. Specifically, the cochlear implants implementing the present invention comprise a plurality of audio sensors arranged in at least one external component of the cochlear implant to spatially receive ambient sound. At least one audio sensor is located in one of the external components of the cochlear implant, while one other audio sensor is located elsewhere, such as in a component other than the first component. The cochlear implant includes an directional sound processor comprising an array processor and a sound processor to convert the received sounds into a cochlea stimulation instruction signal.

Abstract: The present application discloses hearing prostheses with two modes of operation and methods for operating the prostheses. In the first mode of operation, a hearing prosthesis receives a microphone input and produces an output based on the microphone input. In the second mode of operation, the hearing prosthesis may detect an accessory input signal and switch to an accessory input mode. The second mode of operation may produce an output that is based at least in part on the accessory input signal. Some embodiments may include detecting an accessory input signal with a detector. In response to detecting an accessory input signal, the hearing prosthesis may switch to an accessory operation mode. When the accessory input signal is not detected, the hearing prosthesis may operate in microphone operation mode.

Abstract: The present application discloses methods, systems, and hearing prostheses for reducing wind noise and/or thermal noise in an audio signal transmitted to the user of a hearing prosthesis. A method in accordance with the present disclosure includes utilizing delay-sum beamforming to improve the signal-to-noise ratio in an audio signal that contains wind noise and/or thermal noise. In the presence of at least one of wind noise and thermal noise, amplitudes and phases of at least two input signals are matched. The two signals are then added together, resulting in an average improvement in the signal-to-noise ratio of the signal transmitted to the user of about 3 dB.

Abstract: A cochlear implant system comprising an external component having an external speech processor unit, and an internal component. The speech processor unit monitors one or more parameters, and the speech processor unit is configured to reduce the power consumption of the cochlear implant system in the absence of one or more parameters.

Abstract: A training system is disclosed. The training system includes a server. The server includes a processor, data storage, a data input/output interface, and a voice interface. The data input/output interface is configured to provide a web-based interface to a data terminal and to receive, from the data terminal and via the web-based interface, both an identifier identifying at least one voice terminal and at least one response. The voice interface is configured to transmit at least one audio test signal corresponding to at least one audio test to the at least one voice terminal. The response is a response to the at least one audio test. In one embodiment, the voice terminal and the data terminal are combined in a single device.

Abstract: A method of fitting an auditory stimulation system to a recipient the system having a plurality of channels, and the method including the steps of establishing an initial current level profile representative of a current level setting spanning across at least some of the plurality of channels and adjusting parameters of the initial current level profile in the presence of a stimulation signal. There is further included a programming apparatus adapted to be interfaced with the auditory stimulation system to allow manipulation of threshold (T) and comfort (C) levels of the system. The apparatus includes a graphical display means adapted to display a graphical representation of the current profile of the channel array and means for adjusting a current level setting of the current profile of the array.

Abstract: Methods and systems are disclosed for determining the timing of stimulation applied using a medical device. In embodiments, the medical device filters a received signal to obtain a plurality of band-pass filtered signals, each corresponding to one or more stimulation channels. The medical device then determines the envelopes of these band-pass filtered signals. Next, the medical device determines the stimulation timing (i.e., the pulse times) for the corresponding stimulation channel based on the timing of a particular phase (e.g., a peak, a minimum, etc.) of the envelope. A pulse amplitude for the stimulation channel may then be determined, and stimulation applied using the determined amplitude and pulse time.

Abstract: The present application discloses a hearing prosthesis comprising a stimulation assembly configured to be implanted into a cochlea. The stimulation assembly comprises a plurality of electrodes and one or more sensors. The one or more sensors may be configured to measure pressure within the cochlea. The pressure measurements may include (i) measurements of pressure corresponding to a physical contact of the one or more sensors with internal cochlear structures, (ii) measurements of perilymph fluid pressure, or (iii) measurements of pressure waves in the perilymph fluid corresponding to external sound waves. In one aspect, the sensor may be used by a system to help surgeons avoid damage to the cochlea during surgical implantation of the stimulation assembly. In another aspect, the sensor may be one component of an implantable microphone.

Abstract: Forming feedthrough device comprising an electrically insulative structure having holes extending there through. The holes have disposed therein conductive members around which the electrically insulative structure is hermetically sealed.

Abstract: A system for implantation in a recipient comprising: first and second functional implantable components configured to interoperate in order to stimulate the recipient's ear, and an implantable docking station having a plurality of interfaces, the interfaces comprising: a first interface configured to at least one of detachably mechanically and electrically connect to the first component, and at least a second interface configured to at least one of detachably mechanically and electrically connect to the second component, wherein one of the plurality of interfaces is configured to at least one of detachably mechanically and electrically connect to a third component, and wherein the third component is configured to perform an analogous function as one of the first and second components.

Abstract: A compartmentalized fitting system that may be used by a recipient to determine device parameters, such as threshold and/or maximum comfort levels, for a stimulating medical device is provided. The compartmentalized fitting system segregates the fitting procedure into separate sessions. For example, in an embodiment, the fitting system provides a clinician driven setup session whereby a clinician may specify parameters that are to be used in fitting the medical device. After which, the fitting system may enter a recipient driven fitting session that is used to determine one or device parameters for the stimulating medical device. Once determined, the fitting system passes control to a clinician driven approval session whereby the clinician can approve the determined set of device parameters; and, if approved store the determined device parameters. This storage may comprise loading the determined device parameters onto the stimulating medical device for subsequent use by the device.

Abstract: A bone conduction device for enhancing the hearing of a recipient comprising a sound input element configured to receive an acoustic sound signal; an electronics module configured generate an electrical signal representing the acoustic sound signal; a transducer configured to generate mechanical forces representing the electrical signal for delivery to the recipient's skull; one or more extensions mechanically coupled at a first portion to the transducer and further mechanically coupled at a second portion of the one or more extensions to the recipient's bone, wherein the one or more extensions are configured to transfer the mechanical forces from the transducer to the recipient's bone.

Abstract: Disclosed herein are systems and methods that help to optimize the sound quality produced when a sound processing mode is enabled in an audio device, such as a hearing prosthesis. When the sound processing mode is enabled, a sound processor in the audio device will create a candidate transformed signal based on a default set of parameters associated with the sound processing mode (i.e. a candidate signal processing function). Further, the sound processor will create a reference transformed signal based on the same enabled sound processing mode, but with a varied set of parameters (i.e. a modified signal processing function). The sound processor will then compare the candidate transformed signal to the reference transformed signal to determine which signal has a higher quality. The device then creates an output based on the higher quality signal.

Abstract: A multimodal auditory prosthesis. The prosthesis comprises a sound processing unit configured to process sound and to generate electrical signals representing different frequency components of the processed sound and a stimulation module communicably coupled to the sound processing unit, configured to stimulate the recipient to evoke a hearing percept of a range of the frequency components. The prosthesis also comprises an external stimulation module, configured to be positioned within an externally accessible portion of the recipient's first ear, comprising: a receiver unit to wirelessly receive the electrical signals representing the different frequency components, and a transducer that delivers acoustic or mechanical energy to the recipient's ear to evoke a hearing percept of a range of the frequency components.

Abstract: An implantable stimulation device is disclosed which provides for reduced power consumption when compared with bipolar stimulation and better stimulation performance when compared with monopolar stimulation. Implantable stimulator devices use less power in monopolar stimulation mode than that of bipolar stimulation but stimulation performance is greater when using bipolar stimulation. The device comprises circuitry capable of simultaneous stimulation between a reference electrode and an electrode of a stimulation array and between electrodes of the stimulation array, the ratio of current to the reference electrode and array electrodes being selectable.

Abstract: An implantable hearing instrument is provided that reduces the response to unnaturally high vibrations (e.g., due to a patient's own voice), without necessarily or substantially affecting the response to desired signals. The implantable hearing instrument system is operative to selectively alter/lower the gain of signals that have a magnitude above a predetermined threshold. Signals having unnaturally large amplitudes (e.g., due to a patient's own voice) are amplified less than desired signals, so that a patient may experience a more representative sound.

Abstract: A method of operating a hearing prosthesis. The hearing prosthesis includes memory and a clock and is configured to deliver stimuli to a user. The method includes determining the stimuli, with the hearing prosthesis, in response to a sound signal and at least in part by using one or more adjustable parameters stored in the memory. The method further includes receiving, from the user, a request to adjust at least one of the parameters, and determining whether to make the requested adjustment by reference to an amount of time, as determined by said clock, or a function based around an amount of time since a predefined event.

Abstract: An implantable device is provided. The device is constructed from an open body containing electronic components, a heat-sensitive component, and a sealing component. The device is formed in a moisture controlled environment, such that the heat-sensitive component is attached to the open enclosure after the enclosure has been heated. The sealing component is subsequently affixed to the open enclosure to form a sealed enclosure.