A cochlear implant system uses a neural network to detect audio environments and automatically adjust hearing filter settings.
A retinal electrode array uses a central void and high-density parafoveal ring to maximize neural response.
Segmented electrode clusters distribute current density to minimize edge effects and tissue damage while reducing internal stress.
A mouthpiece unit applies recipe currents to heat nicotine media and flavor cartridges for digital taste generation.
Embedded strain sensors on cochlear implant electrodes measure insertion force and position to reduce trauma to inner cochlear structures.
A system selects stimulation electrodes using bioelectrical signals and physiological models to determine optimal configurations.
Electrical stimulation of auricular nerve fibers releases endogenous opioid peptides, reducing withdrawal symptoms without respiratory depression risks.
A pull wire displacement assembly uses a slider pin and track to manipulate electrode leads during cochlear implantation.
A voltage limited neurostimulation system modulates electrical current through patient electrodes.
Segmented tip electrodes enable precise current steering to target specific neural tissue while reducing unwanted stimulation of neighboring areas.
A transcranial electromagnetic treatment system delivers focused frequencies to disaggregate toxic protein oligomers in the brain.
An electrode control device calculates optimal implantation paths using real-time position data from external imaging modalities.
Neurostimulation system records perilesional brain oscillations to deliver adaptive electrical current.
Low-level laser therapy applies specific wavelengths to the scalp to stimulate cellular metabolism and gene expression in brain tissue.
Segmenting beta oscillation amplitude and frequency controls distinct motor dysfunctions, resolving generic biomarker limitations in Parkinson's treatment.
An integrated brain stimulation lead combines recording and stimulating electrodes to eliminate multiple insertions during deep brain stimulation procedures.
Segmented electrode modules with local control circuits lower carrier stiffness, enabling safer cochlea insertion while maintaining high frequency resolution.
A contact lens harvests external energy and converts it to radio frequency signals for wireless transmission.
Parallel trace routing with extended overlap prevents dielectric breakdown between layers, ensuring neural implant reliability.
A widening passage stores hard solder to eliminate deformation risks and costly assembly precautions.
A coil spring mounted in a non-uniform radius housing groove creates localized high and low contact force zones within an implantable medical device.