Abstract: An exemplary method includes cochlear implant circuitry, which is disposed within a cochlear implant module configured to be implanted within a patient, performing the following: 1) detecting that an implantable antenna is connected to a modular connector coupled to the cochlear implant module, 2) operating in accordance with a radio frequency (“RF”) inductive link communication protocol while the implantable antenna is connected to the modular connector, 3) detecting a disconnection of the implantable antenna from the modular connector and a connection of an implantable sound processor to the modular connector, and 4) dynamically switching from operating in accordance with the RF inductive link communication protocol to operating in accordance with a hard wired baseband link communication protocol in response to the connection of the implantable sound processor to the modular connector.

Abstract: An exemplary system includes a data program loading facility configured to pre-load program data representative of a plurality of sound processing programs onto a sound processor during a data transfer session and a fitting facility selectively and communicatively coupled to the data program loading facility and configured to selectively use one or more of the pre-loaded sound processing programs to fit the sound processor to a cochlear implant patient after completion of the data transfer session.

Abstract: There is provided a hearing assistance system comprising an auditory prosthesis device for neural stimulation of a patient's hearing at one of the patient's ears and a hearing aid for acoustic stimulation of the patient's hearing at the same one or the other one of the patient's ears.

Abstract: Apparatus and methods for installing a magnet into a cochlear implant.

Abstract: An exemplary sound processor apparatus includes 1) an earhook interface assembly that includes a plurality of contacts and that is configured to interchangeably connect to a microphone assembly and an EAS receiver assembly by way of the plurality of contacts, and 2) a control module communicatively coupled to the plurality of contacts. In some examples, the control module uses the plurality of contacts as output ports to output one or more EAS signals to the EAS receiver assembly while the EAS receiver assembly is connected to the earhook interface assembly.

Abstract: In one example, a cochlear lead includes a flexible body, an array of electrodes in the flexible body, and a plurality of wires passing along the array of electrodes. The plurality of wires includes a flexural geometry between each pair of adjacent electrodes and a substantially straight geometry over the electrodes. A method for forming an electrode array with a reduced apical cross section is also provided.

Abstract: A behind-the-ear sound processor module includes a BTE-housing; an adjustable microphone module attached to the BTE-housing for capturing input audio signals from ambient sound; and a sound processor unit for generating, from the input audio signals, a neural hearing stimulation signal to be supplied to an implantable neural stimulation arrangement, wherein the microphone module comprises a plurality of microphones and a support element for carrying the microphones, wherein the support element is movable between a beamformer position enabling the plurality of microphones to act as a directional microphone array in a beamformer audio signal processing mode of the sound processor unit and a T-Mic position enabling at least one of the microphones to act as a T-Mic in a T-Mic audio signal processing mode of the sound processor unit at a position closer to the entrance of the ear canal than in the beamformer position.

Abstract: A binaural hearing system (“system”) preserves and/or enhances interaural level differences (“ILDs”) between first and second signals. The system includes audio detectors each associated with an ear of a user. The audio detectors detect an audio signal presented to the user and generate the first and second signals to represent the audio signal as detected at each ear. The system also includes sound processors associated with each ear that each receive the first and second signals from the audio detectors directly and/or by way of a communication link from the other sound processor. The sound processors each perform operations with respect to the first and second signals to preserve and/or enhance the ILDs between the signals. In so doing, the sound processors perform a contralateral gain synchronization operation to a first degree at the first sound processor and to a distinct second degree at the second sound processor.

Abstract: A cochlear lead includes a thermoformed circuit with a substrate with electrodes formed on the substrate and shaped to curve around a longitudinal axis of the cochlear lead. Traces are also formed on the substrate and connected to the electrodes. Intermediate sections between the electrodes may be curved about an axis that is orthogonal to the longitudinal axis.

Abstract: Methods of connecting wires (126) to feedthrough pins (104) and apparatus including wires connected to feedthrough pins.

Abstract: An implantable lead may include an insulating substrate and a first asymmetric electrode formed on the insulating substrate. The first asymmetric electrode may have external perimeter edges defining a boundary between an exposed portion of the first electrode and the insulating substrate, wherein the external perimeter edges of the first electrode have asymmetric edge lengths.

Abstract: In one example, an implantable lead includes a substrate and an electrically conductive material disposed on the substrate to form a flexible circuit. The flexible circuit includes a proximal end adapted to electrically connect to an implantable processor, a distal portion adapted to stimulate a cochlear nerve, and a lead body extending from the proximal end to the distal portion, the lead body having a longitudinal axis and comprising a plurality of electrical traces adapted to carry electrical signals from the proximal end to the distal portion. A flag extension is formed in the substrate and extends laterally outward from the lead body longitudinal axis. A method for forming a cochlear lead with a flag extension is also provided.

Abstract: A cochlear implant sound processor including processor apparatus that, in response to being paired with a cochlear implant, converts audio signals from a microphone into stimulation data and transfer the stimulation data to cochlear implant, and in response to a failure to detect the cochlear implant, transfers the audio signals to a contralateral sound processor. Systems and methods are also disclosed.

Abstract: An exemplary system includes 1) a cochlear implant module configured to be implanted within a patient and including cochlear implant circuitry configured to apply electrical stimulation representative of one or more audio signals to the patient, 2) a first connector assembly coupled to the cochlear implant module and configured to be implanted within the patient, the first connector assembly including a first set of induction coils, 3) an implantable module configured to be implanted within the patient, and 4) a second connector assembly coupled to the implantable module and configured to be implanted within the patient, the second connector assembly including a second set of induction coils. The first and second sets of induction coils are configured to form a multi-channel inductive link between the implantable module and the cochlear implant module. Corresponding systems are also disclosed.

Abstract: An exemplary targeted channel selection system may determine a target stimulation rate for a user of a cochlear implant system, determine a pulse width value that is representative of one or more pulse widths that are to be used for stimulation pulses applied by the cochlear implant system to the user during a stimulation session, and determine, based on the target stimulation rate and on the pulse width value, a value for N that is specific to the user. In this example, N represents a total number of analysis channels that are to be selected from M available analysis channels for presentation by the cochlear implant system to the user during a stimulation frame of the stimulation session.

Abstract: An exemplary sound processor may 1) divide an audio signal into M analysis channels, 2) select only N analysis channels included in the M analysis channels for presentation to a patient during a stimulation frame, wherein N is less than M, 3) increase a probability that a particular analysis channel will be included in the N analysis channels selected for presentation to the patient during the stimulation frame if the particular analysis channel was not selected for presentation to the patient during one or more stimulation frames that temporally precede the stimulation frame, and 4) decrease the probability that the particular analysis channel will be included in the N analysis channels selected for presentation to the patient during the stimulation frame if the particular analysis channel was selected for presentation to the patient during the one or more stimulation frames that temporally precede the stimulation frame.

Abstract: A binaural cochlear implant system (system) includes first and second microphones associated with first and second ears of a patient, respectively. The microphones detect an audio signal presented to the patient and output first and second signals representative of the audio signal as detected at the first and second ears, respectively. The system also includes a first sound processor that receives the first signal from the first microphone and the second signal from a second sound processor by way of a communiation link with the second sound processors. The first sound processor generates first and second fine structure signals representative of fine structure information of the first and second fine structure signals. The first sound processor uses the timing pulse signal to represent to the patient an interaural time difference between the first and second signals.

Abstract: In one example, a cochlear lead includes a flexible body, an array of electrodes in the flexible body, and a plurality of wires passing along the array of electrodes. The plurality of wires includes a flexural geometry between each pair of adjacent electrodes and a substantially straight geometry over the electrodes. A method for forming an electrode array with a reduced apical cross section is also provided.

Abstract: An exemplary fitting system 1) directs an EAS system to concurrently apply acoustic stimulation to a patient by way of a loudspeaker and electrical stimulation to the patient by way of an electrode located within a cochlea of the patient, 2) determines an interactive effect that the electrical stimulation has on the acoustic stimulation, 3) directs, if the fitting facility determines that the interactive effect is suppressive, the EAS system to use a first stimulation strategy that steers a current field produced by stimulation of the electrode away from intracochlear acoustic responders within the patient that are associated with the acoustic stimulation, and 4) directs, if the fitting facility does not determine that the interactive effect is suppressive, the EAS system to use a second stimulation strategy that steers the current field produced by the stimulation of the electrode towards the intracochlear acoustic responders.

Abstract: Sound processor housings, sound processors and systems including sound processors are disclosed. The housings include a main portion with a power supply receptacle, a seal and power supply receptacle cover. The seal may include a deflectable portion and define a material-free region into which the deflectable portion deflects in response to the application of radial force by the power supply receptacle cover.