Electrotherapy TRIZ Cases

An implantable medical device uses an inductive authorization pulse to verify external pairing requests.

Segmented monitoring cable harness with retention elements resolves connection stability versus ease of operation trade-offs in surgical nerve assessments.

Integrating RF, microwave, and electroporation channels into one device reduces surgical equipment quantity while maintaining distinct treatment capabilities.

Flow controllers switch gas supply between active and inactive states to eliminate electromagnetic interference in large-area plasma treatments.

An implantable multi-parameter sensor catheter integrates electrochemical and optical sensing elements within a flexible housing.

Temporal interference creates envelope-modulated fields to stimulate specific neural regions without invasive electrodes.

Graphical mapping of clinical response data visualizes stimulation parameters against therapeutic and adverse effects.

A frequency generator apparatus applies low-intensity electric signals through isolated channels to detect physiological resonance peaks.

A wearable controller detects gait dysfunction via motion sensors and triggers electrical stimulation to manage patient movement.

Integrated head-mounted device embeds pre-gelled electrodes to eliminate misalignment artifacts during simultaneous VEP and ERG recording.

Pulsed electromagnetic field stimulation uses segmented skin electrodes to promote osteoblast mineralization and cell proliferation.

Spray catheters deliver intraoperative disinfectants to surgical sites, preventing bacterial spread from GI tract perforations.

A resonant tank circuit controller signals end-of-charge by detuning the implant coil frequency.

A laser radiation source delivers energy through a treatment waveguide to coagulate fallopian tube tissue, eliminating surgical incisions and anesthesia risks.

Magnetocaloric actuator switches magnetic states to generate differential contrast in biological samples.

Macro band processing selects dominant energy signals to preserve temporal and spectral structures in cochlear implants.

A closed-loop stimulation system maximizes slow wave activity by delivering pulses within optimal windows derived from peripheral nervous system oscillations.

Tranexamic acid and gentamicin sulfate coatings on an anchorage device reduce bleeding and infection risks at surgical sites.

Coil array interference focuses magnetic flux density to stimulate nerve fascicles, eliminating unfocused current spread and reducing device size.

A protective coating on the negative electrode prevents copper corrosion during deep discharge, eliminating the need for external protection circuitry.

A transmitting implantable medical device establishes transmission windows by detecting transimpedance patterns via test signals.

An external processor device uses an audio bypass mode to transmit internal electrical signals wirelessly for verification.

A plasma catheter generates a controlled plume to ablate tissue surrounding medical implants.

A CPR feedback device detects chest compression depth using magnetic fields and a reference sensor to identify ambient interference.

A hardware-based system estimates skin impedance and motion artifacts using square current pulses to enable accurate neural signal recording.

A threaded ferrule locking mechanism secures implantable leads within connector housings using mechanical engagement.

A bio-feedback device adjusts electrical stimulation waveforms using maternal-fetal monitoring and hand-grip pressure data.

Rotating dual-tapered blades separate psoas muscle fibers, avoiding compression damage and nerve injury during spinal surgery.

A low-frequency treatment device computes a treatment time period based on preset muscle contraction counts and pulse signal conducting and pausing periods.

Low intensity high frequency magnetic stimulation reduces seizure risk while treating substance use disorder.

Electrical stimulation of the phrenic nerve manages breathing disorders without renal complications from excessive diuretics.

Electromagnetic energy heats subcutaneous tissue to remodel collagen and reduce lipid-rich cells, avoiding skin damage risks from direct contact.

Plasma jets from a microplasma-integrated speculum inactivate antibiotic-resistant middle ear biofilms without surgical invasion.

A storage container uses a dielectric member to adjust antenna input impedance for implantable medical devices.

Sense coils measure electrical parameters to visually indicate coil position, reducing tissue exposure from prolonged electromagnetic heating.

Sloped side walls on the substrate minimize tissue irritation while stacked bio-compatible layers provide reliable diffusion barriers for implantable devices.

Two-shot molding prevents electrode contamination and defects during implantable device header fabrication.

Low-level laser energy releases intracellular fat into interstitial space through non-invasive photobiomodulation, avoiding tissue damage and recovery time.

A bioresonance device detects electrophysiological data points to identify resonance frequencies for physiological state assessment.

A high-density implantable electrical connector uses arrayed bond pads and a coupling subsystem to establish reversible contact between substrates.

Integrates electromagnetic radiation and pulsed magnetic fields to remodel adipose tissue while minimizing energy consumption.

Segmented body and earhook design resolves retention trade-off while boosting spatial audio capture.

A beauty tool uses a magnetic attraction head to remove cosmetic agents from human skin.

Remote processor analyzes implantable medical device counters to detect signal quality drops and generate alerts for early intervention.

A beauty device uses a segmented lid structure with an inner sealing component and outer gripping cover to isolate the waterproof seal from user handling forces.

Multiplexed needle electrodes measure tissue electrical impedance across multiple frequencies to generate high-resolution 2D images.

Textured interfaces on epoxy headers enhance adhesion strength and structural reliability while simplifying manufacturing complexity.

A blue light device varies its spectrum via a control circuit to modulate photo-biological effects while maintaining consistent color and intensity.