An implanted cervical accelerometer detects respiration phases so cranial nerve stimulation can synchronize with inspiration while conserving power.
An auto-encoder learns eCAP growth curves to flag implantable lead movement early, supporting timely therapy adjustment.
High-charge electrode contacts balance cathodic and anodic DC phases to block neural signals without tissue damage or painful onset responses.
An implanted cervical accelerometer detects respiration phase transitions so cranial nerve therapy can synchronize with inspiration and limit power use.
Flexible polyimide layers embed micro-ILEDs and electrodes to conform to brain tissue for chronic stimulation and recording.
Variable waveforms counter neural adaptation, while an occipital implant reduces lead migration and patient discomfort.
Low-frequency anodic and cathodic pulses provide sub-perception pain relief while reducing power draw and extending stimulator battery life.
A tubular electrode arrangement applies balanced high-frequency phases to block nerve conduction while limiting tissue damage.
Lower-frequency pulses with tuned pulse widths help deliver pain relief without paresthesia while reducing neurostimulator power consumption.
An implanted conductive element focuses external magnetic fields for phase-contingent pudendal stimulation, limiting non-target activation.
Intermittent, sub-perception spinal stimulation models pain-relief washout to limit paresthesia while conserving energy.
Paired ventral and dorsal auricular electrodes create selectable trans-auricular currents, providing non-invasive access to auricular nerve fields.
Portable collar chambers apply positive or negative pressure at the carotid sinus, replacing noisy neck chambers for routine baroreflex assessment and therapy.
A mobile camera captures medical images to map electrode positions, enabling programming adapted to individual spinal anatomy.
Surface electrodes estimate sympathetic activity through skin nerve signals, avoiding direct stellate ganglion recording and invasive procedures.
Combining low- and high-frequency pulse trains gives patients feedback for titration while supporting paresthesia and paresthesia-free pain relief.
A radial bulkhead and flexure fingers distribute compression around medical leads, reducing damage and movement in RF-exposed configurations.
Multiple electrode leads coordinate cervical cranial-nerve stimulation while anchored housings resist migration in motion-prone neck tissue.