Head Electrodes TRIZ Cases

Multi-site ECochG recording plus electrode position tracking helps distinguish insertion movement from true cochlear response changes.

Force-guided robotic cochlear implant insertion improves positioning precision and helps preserve residual hearing by reducing trauma.

Electrodes placed in adjacent brain vessels triangulate stimulation targets, reducing DBS surgical trauma while improving targeting accuracy.

A locking tube and widened tether end secure leadless pacemaker delivery while improving torque distribution and reducing jamming.

Paired AC currents from square-positioned electrodes stimulate airway tissue to improve airflow without surgical implants or a CPAP mask.

Passive ME backscatter communication helps miniature implants transmit data and receive power despite alignment and multi-mote constraints.

Heart rate feedback during TMS maps cortical sites functionally linked to the ventromedial prefrontal cortex for more accurate neuromodulation.

A channel-specific inhibition model normalizes contralateral band energy in bilateral cochlear implants to improve speech recognition in noise.

A locking tube and tether simplify biostimulator attachment and release, distribute torque evenly, and reduce jamming in confined anatomical spaces.

ECAP screening and recipient feedback deactivate ineffective electrodes, reducing power use while preserving useful auditory spectrum coverage.

A dynamic reference base registers medical images and tracks instruments for robotic guidance without fiducial arrays or CT scanners.

A contoured shell, pliable arms, and an aligned placement tool secure electrodes or catheters around cranial burr holes.