A ceramic housing moves the charging coil inside the implant, cutting header bulk while a glass-to-metal seal maintains hermeticity.
Sequential monopolar and bipolar pulsed RF in one handpiece improves collagen renewal and basement membrane strength while reducing pain.
An anisotropic layer with a central hole and foam spreads current and heat in TTField arrays, reducing skin irritation and enabling higher current.
Applying a magnetic field before free-radical-generating therapy prolongs radical lifetime in normal tissue and reduces adjacent tissue damage.
Real-time ECG feedback synchronizes magnetic and optical heart stimulation in a wearable harness while limiting interference and blocking unsafe pulses.
A reconfigurable electrode array lets compact implants measure multiple analytes and deliver stimulation without separate dedicated electrodes.
Real-time ECAP feedback adjusts stimulation parameters when electrode position shifts, preventing overstimulation and preserving therapy efficacy.
Bioimpedance feedback adjusts pelvic nerve stimulation in real time to improve bladder and bowel continence and reduce involuntary leakage.
Randomized high-frequency current sequences raise tissue energy delivery while limiting contact-point heating and reducing habituation.
Block-based sequence descriptions cut programming time and memory use while enabling precise multi-site neuromodulation timing and field control.
An extendable CPR piston uses sleeves, spacers, and position sensing to fit different patient sizes while keeping compressions safe and consistent.
Strategic capacitor insulation placement and nano metal oxide fillers raise dielectric strength while preserving hermeticity in implantable devices.
High-dielectric polymer layers replace rigid ceramic discs to keep TTFields capacitive coupling effective while improving comfort and positioning.
Switching between super-threshold and sub-threshold neuromodulation modes maintains therapy, compensates lead migration, and limits paresthesia.
A TET link carries energy and a verification key while adaptive security levels protect implanted device communication and allow emergency access.
Intersecting electrodes and dielectric layers spread RF energy evenly across skin, sustaining contact and reducing localized thermal damage.