A fitting subsystem uses a single sound processor to selectively configure bilateral cochlear implants by segregating and transferring data.
A combined radiofrequency and magnetic treatment device delivers simultaneous heating and muscle contraction through integrated segmented electrodes.
Automatic implant identification prevents incorrect device pairing in bilateral cochlear systems, ensuring safe stimulation delivery.
A data management queue filters items before packet transmission to optimize resource usage.
Segmented capacitors and a chopper resolve the contradiction between rapid current rise and steady-state duration in high power pulse generators.
A laminated seal structure using glass and polymer layers hermetically seals conductive pins to a housing body.
A channel directs inert gas through an electrode to form a plasma discharge, achieving precise cutting while minimizing deep tissue necrosis.
A sequentially programmed magnetic field therapeutic system uses computer-controlled generator arrays to produce pulsed fields for cellular resonance.
Segmenting multi-channel stimulation signals reduces fitting process complexity by allowing audiologists to determine optimal levels via recipient feedback.
A dielectric heating apparatus raises skin temperature to improve microcirculation and tissue elasticity.
An asymmetrical v-groove and toroidal spring decouple insertion from retention forces, preventing accidental pull-out in medical devices.
A high-frequency electro medical device emits electromagnetic waves at discrete frequencies for targeted tissue stimulation.
A hearing aid automatically adjusts and stores start values based on user interactions to simplify fine customization.
A multichannel biphasic signal generator circuit uses an H-bridge topology to drive multiple electrode pairs via a shared transformer.
Segmented transmitter coils dynamically adjust phase and polarity based on receiver feedback to maintain efficient power transfer despite coil misalignment.
A handheld applicator delivers riboflavin and ultraviolet light to activate antimicrobial photo-oxidation within internal anatomical regions.
An inhomogeneous lens attenuates electric fields to focus subnanosecond pulses, overcoming reflection losses for deep brain stimulation.