Head Electrodes TRIZ Cases

Automated laser machining and overmolding processes manufacture compact cochlear electrode arrays while eliminating manual handling stresses.

An adhesive-secured deep brain stimulation cap sits flush with the skull to prevent lead migration and reduce scalp erosion risks.

A brain stimulation system monitors neural signals to detect seizure indicators during therapy.

Ring-like polypeptides integrate into cell membranes to form conductive nanopores, resolving low signal-to-noise ratios in multi-microelectrode arrays.

A resonant frequency apparatus drives net macro-current across neuronal cell membranes to generate peripheral nerve blockade.

Dynamic current steering sweeps electrical stimulation across electrode arrays to merge discrete phosphenes into unified visual percepts.

A flexible polymer electrode array conforms to the curved retinal surface to maintain consistent mechanical contact with neural tissue.

Zero echo time magnetic resonance imaging localizes deep brain stimulation electrodes, eliminating beam hardening artifacts that compromise standard CT scans.

Tissue-receiving space compresses brain tissue to form a seal, reducing fluid backflow along the insertion pathway during convection-enhanced drug delivery.

Segmented multi-contact microprobes resolve limited electrical contact issues by enabling precise weak current stimulation for clear visual perception.

A nonparametric hierarchical additive model predicts neural connectivity changes using protocol and network features.

A system modifies stimulation parameters to generate an MRI-compatible program for implantable pulse generators.

A Biological Co-Processor device records and modulates neuronal activity using carbon fiber interfaces.

A porous electrode assembly uses insulating members to segment the contact surface and facilitate even current distribution.

Dynamic electrode selection mitigates inhibition effects while isolation members prevent direct signal passage between adjacent elements.

Stimulating parasympathetic structures in the cranium enhances neural plasticity and cerebral blood flow.

A deep brain stimulation probe uses a dual-purpose electrode array to deliver spatially distributed electrical stimuli based on real-time neuronal activity.

A wireless implantable electroencephalography system uses double-sided electrodes to detect neurological signals and artifacts independently.