A biodegradable conduit uses ultrasonic-powered triboelectric stimulation and multilinear electrodes to bridge severed nerves with stable electric fields.
A supervisor circuit monitors evoked-response feedback to catch control faults and adjust stimulation energy before overstimulation occurs.
A subcutaneous nanogenerator converts pressure into nerve-stimulating signals to restore touch without external power or complex prosthetics.
A non-metallic IPG housing with aligned optical leads improves signal stability, resists in vivo corrosion, and supports faster continuous charging.
Precise optical fiber coupling in a flexible percutaneous lead keeps adaptive stimulation signals stable while supporting durable implanted use.
An ultrasonic-powered splenic nerve implant modulates inflammation and blood pressure while avoiding the broad side effects of vagus nerve stimulation.
Poor charger-implant coupling is corrected by sense coils that detect offset and adjust magnetic field power to improve charging efficiency and limit overheating.
Ultrasonic triboelectric generation uses a matching layer and resonant friction structure to power titanium-packaged nerve implants without battery replacement.
Segmented branched plugs and buried traces enable removable, high-channel neural connections with less tissue disruption during upgrades.
Wireless power shrinks the implant for percutaneous placement while configurable stimulation improves nerve targeting and avoids unwanted activation.
Arrayed conductive layers on microelectrodes suppress edge effects, lowering impedance and improving charge storage for neural detection.
Directional implantation through a hard mask forms self-aligned P-wells, cutting trench MOSFET cell pitch without extra alignment steps.
A detachable lead connector uses a resilient blade to strip insulation and keep stable cable contact, improving peripheral stimulation comfort and mobility.
Spring-loaded retractable contacts enable dense, non-permanent lead connections in neuromodulation implants while preserving module replacement.
An ultrasonic-powered splenic nerve implant removes batteries and leads to cut infection risk while enabling targeted stimulation and nerve sensing.
Multiple sense coils detect charger offset and depth, enabling power adjustment that improves IMD charging efficiency and limits overheating.
Interlocked conductive filaments enable compact electrode leads with more controllable contact placement, larger surface area, and better directionality.
Compliant layers between piezoelectric stack elements improve low-frequency power output and durability by reducing resonance mismatch.