Advanced Bionics Corporation

Advanced Bionics Ag

Scott A Crawford

Douglas P Lynch

Carla Mann Woods

Lee F Hartley

C Geoffrey E Fernald

William Vanbrooks Harrison

Philip A Segel

Glen A Griffith

George Tziviskos

Michael Allen Faltys

Abhijit Kulkarni

James George Elcoate Smith

Tracey L Kruger

Kurt J Koester

R Tissa Karunasiri

Manish Vaishya

Roger S Meier

Markus Michael Heerlein

W Gary Sokolich

Frank Nigro

Dave Nyberg

Glenn A Griffith

RTissa Karunasiri

A cochlear including a cochlear lead, a housing including a magnet pocket and a magnet aperture, a magnet, located within the magnet pocket, having a top surface adjacent to the magnet aperture that defines a top magnet outer perimeter and a bottom surface adjacent to the bottom wall that defines a bottom magnet outer perimeter that is greater than the top magnet outer perimeter, an antenna within the housing, a stimulation processor within the housing.

Cochlear implants and magnets for use with same

An integrated headpiece for a cochlear implant system includes a microphone for outputting an audio signal; signal processing electronics for processing the audio signal; and a transmitter for transmitting a processed audio signal received from the electronics to an implanted receiver. All of the microphone, signal processing electronics, and transmitter are disposed in a common housing of the integrated headpiece. The headpiece may also be one of a set of headpieces that can be alternatively used as needed to suit power consumption requirements or environmental conditions. Cochlear implant systems include a circuit board having electronic circuitry configured to generate one or more signals configured to direct electrical stimulation of one or more stimulation sites within a patient, an induction coil configured to transmit a telemetry signal by generating a telemetry magnetic field, and a telemetry flux guide positioned between the induction coil and the circuit board. The telemetry flux guide is configured to direct magnetic flux of the telemetry magnetic field away from the circuit board.

Cochlear implant headpiece

A cochlear implant system includes: an electrode array implanted within a cochlea; an internal processor in communication with the electrode array; an implanted antenna which is electrically coupled to the internal processor; and a modular external headpiece which is removably positioned over the implanted antenna, the modular external headpiece including a core containing a sound processor for processing sound and providing a corresponding signal to the implanted antenna; and a modular component configured to releasably engage the core and supply electrical power to the core. A modular speech processor headpiece includes a core comprising a microphone and sound processor for producing a signal representing ambient sound to be transmitted to a cochlear implant, the core further comprising a number of electrical contacts; and a modular component containing a number of electrical contacts corresponding to the electrical contacts of the core; wherein the core is configured to engage with the modular component such that electrical communication is made between the core and the modular component.

Speech processor headpiece

A headpiece for use with a cochlear implant includes a headpiece housing, a microphone within the headpiece housing, an induction coil within the headpiece housing that transmits audio signals to the cochlear implant, signal processing electronics, within the headpiece housing and operably connected to the microphone and to the induction coil, that generate stimulation parameters, and a rechargeable battery operably connected to the induction coil such that the induction coil provides energy to charge the rechargeable battery when the induction coil is inductively coupled to a transmitter coil through which current is passing.

A headpiece for use with a cochlear implant including a headpiece housing, a retention magnet within the headpiece housing that generates a retention magnetic field, the retention magnet including a bottom surface that faces the cochlear implant, a top surface opposite the bottom surface, and an outer radial surface between the top and bottom surfaces, an induction coil within the headpiece housing that transmits audio signals to the cochlear implant by generating a telemetry magnetic field, and a retention flux guide within the headpiece housing and adjacent to the top surface of the retention magnet.

Cochlear implant headpieces with improved antenna positioning.

Headpieces and implantable cochlear stimulation systems including the same

A system and method for generating a beamforming signal is disclosed. A beam forming signal is generated by disposing a first microphone and a second microphone in horizontal coplanar alignment. The first and second microphones are used to detect a known signal to generate a first response and a second response. The first response is processed along a first signal path communicatively linked to the first microphone, and the second response is processed along a second signal path communicatively linked to the second microphone. The first and second responses are matched, and the matched responses are combined to generate the beamforming signal on a combined signal path.

Beamforming microphone system

A sound processor, for use with a cochlear implant, that includes directional microphone capabilities.

Body worn sound processors with directional microphone apparatus

Integrated speech processor headpiece

A waterproof enclosure for a cochlear implant system or other hearing assistance device includes an outer housing, an inner support in the interior of the outer housing, an acoustic element supported by the inner support, and water-impermeable polymeric protective membrane sealing the interior of the outer housing against water ingress. A hearing device such as a cochlear implant sound processor, a headpiece, an earhook, or a hearing aid comprises an outer housing, an inner support in the interior of the outer housing, a microphone supported by the inner support, and a water-impermeable polymeric protective membrane sealing the interior of the outer housing against water ingress. A method for waterproofing an acoustic element comprises molding an outer support having a water-impermeable polymeric protective membrane; inserting an acoustic element into an inner support; anchoring the acoustic element to the inner support; inserting the inner support into the outer support; and anchoring the inner support to the outer support.

Waterproof acoustic element enclosures and apparatus including the same

An exemplary apparatus for use with an auditory prosthesis system includes a housing, a connector port disposed at least partially within the housing and configured to be communicatively coupled to an auxiliary audio input device, a telecoil disposed at least partially within the housing, and a multi-position switch disposed at least partially within the housing and configured to selectively enable the auxiliary audio input device and the telecoil. The auxiliary audio input device is enabled and the telecoil is disabled when the switch is in a first position, both the auxiliary audio input device and the telecoil are enabled when the switch is in a second position, and the telecoil is enabled and the auxiliary audio input device is disabled when the switch is in a third position. Corresponding apparatuses, systems, and methods are also disclosed.

Growing community of inventors

Castaic, CA, United States of America

Scott A Crawford