External Electrodes TRIZ Cases

Segmented adhesive elements and dynamic clips allow repeated detachment for showering while maintaining reliable stimulation.

A neuromuscular stimulation apparatus modulates pulse amplitude using real-time voluntary EMG signals.

Intermittent electrical stimulation triggers muscle contractions to increase venous blood flow and velocity in deep veins.

Periodic muscle contraction via electrical stimulation restores blood flow and prevents deep tissue injuries without causing fatigue.

Stimulating mastication muscles contracts them to elevate the mandible, reducing respiratory effort in patients with complex upper airway anatomy.

A smartphone interface lets users select and adjust neurostimulation waveforms for real-time cognitive state modification.

Capacitive electrodes generate variable electrical fields to treat tumors while minimizing fringing effects and energy consumption.

An intermediary bonding layer isolates the leadwire from direct contact with the conductive layer, preventing galvanic corrosion and electrical arcing.

A control unit increases stimulation voltage in steps based on elapsed time to match patient skin conditions.

A conductive pad uses gel with capsaicin or lidocaine to deliver electrical stimulation for muscle training and pain relief.

DC coupled amplifiers replace narrow-band transformers to resolve the contradiction between wide frequency adaptability and device complexity.

Deformable transducer arrays adapt to non-planar surfaces, avoiding interference with sensitive anatomical features during tumor treating field therapy.

Self-contained electrostimulation device adjusts output voltage via return path voltage measurement to deliver consistent target current.

Dual-mode electrodes reduce device complexity and side effects by combining stimulation with physiological monitoring for accurate motion perception.

A bridged electrode appliance uses a multi-path circuit to maintain electrical continuity between wire leads and skin-contacting electrodes.

Implanted electrical stimulation device modulates lower esophageal sphincter muscle function to treat achalasia.

A transcutaneous nerve stimulator adjusts electrical impulses using a software application that senses patient physiological parameters.

Segmented foam windows encase conductive gel pads, securing reliable adhesion on oily skin while preventing leakage during long-term use.

Dual-mode mapping electrodes identify nerve pathways before stimulation, preventing pain from unintended muscle contractions during treatment.

Merging electrodes with heating pieces via insulating layers resolves complexity trade-offs in electrostimulation devices.

Implanted duodenal electrodes deliver 10 kHz to 1 MHz electric fields to disrupt microtubule spindle formation in cancer cells.

A guiding engagement portion prevents accidental detachment during user movement by restricting reverse motion while allowing approach-based attachment.

An encoded stimulation pattern protocol segments data into header, body, and footer sections to enable safe transmission of electrical impulses.

Burst waveform generation prevents neural habituation, resolving the trade-off between non-invasive operation and effective pain therapy.

A bio-erodible fixation mechanism secures temporary gastrointestinal sensors to tissue and releases them for natural excretion.

Segmenting conductive regions into separate sub-conductive zones confines current flow to the sole, eliminating torso exposure and preventing electrolysis.

A polyurethane gel dielectric enables gentle contact with sensitive skin during plasma treatment.

Ceramic and metalized electrode layers conduct heat away from the skin interface to maintain safe operating temperatures during tumor treating field delivery.

Curved electrode surfaces conform to ear contours, resolving mechanical stability issues in soft silicone holders.

Heart pulse sensors guide electrode positioning on the skin surface, resolving the contradiction between non-invasive safety and accurate nerve modulation.

A high-charge capacity electrode system delivers direct current to block nerve conduction while preventing damage from Faradaic reaction products.

Apertures in flexible conductive tape create localized electron delivery zones, resolving energy dispersal trade-offs while enhancing therapeutic reliability.

Wearable ankle support delivers electrical pulses through paired electrodes to stimulate the tibial nerve.