Electrotherapy TRIZ Cases

A hermetically sealed implantable device housing combines a ceramic component with a thin metal ring to enable efficient magnetic flux transmission.

An implantable active micro-shunt manages fluid drainage and drug delivery using MEMS sensing.

Metal applicators on a dielectric plate polarize electromagnetic radiation, reducing stray currents and neutralizing high-frequency energy fluxes.

A processor detects bioelectrical brain signal biomarkers to monitor therapy efficacy and generate clinical notifications.

A medical implant apparatus uses wireless energy transmission to power internal devices without invasive battery replacements.

A waveform generator produces complex neural stimulation pulses with adjustable parameters.

Adjustable support segments eliminate belt pressure points by conforming to patient contours for precise traction.

A treatment object delivers heat and chemotherapy drugs to tumor sites using magnetic guidance.

Niobium pentoxide prevents paste shrinkage and ensures hermetic seals in medical device feedthroughs without compromising electrical conductivity.

A communication device transmits wakeup messages with distinct identifier codes to activate implantable medical device circuitry only when within range.

Axial contacting elements transmit nerve signals through rotating drill shafts, eliminating radial sliding wear.

A spherical sealing member creates a hermetic seal in an energy storage device fillport through frictional fit deformation.

Chromophores absorb radiation to create discrete thermal injury zones, reducing side effects and scarring risks during skin rejuvenation.

Telescopic support legs adjust a chest compression mechanism to accommodate varying patient sizes for emergency medical response.

A disposable thermal exchange cuff delivers combined electromagnetic and heat therapy to joints without direct skin contact.

External nerve stimulator adjusts signal parameters using feedback from an implanted transmitting coil.

Magnetic induction stimulates the vagus nerve to inhibit pro-inflammatory cytokines and treat neurodegenerative diseases without surgical risks.

A segmented electrostatic shield reduces component stress and system weight by blocking parasitic electric fields without requiring frequency shifting.

A closed loop charger adjusts output power using reflected impedance modulation from an implantable pulse generator.

Non-linear feedback control compensates for lead migration by adjusting stimulation parameters based on evoked compound action potential differences.

A mechanical CPR device controller adjusts chest compression frequency and duration to restore blood flow.

An actuator shaft uses multiple circumferential contact points to supply electric current to a brush body drive mechanism.

External components process sensory data and attributes into packets for wireless transmission to implantable hearing devices.

Prefrontal stimulation synchronized to medial temporal lobe activity during sleep.

Auricular acupuncture patch integrates a detachable magnetic stimulating part for direct ear reflex point stimulation.

Micromagnetic stimulation using a sub-10mm microcoil induces precise current flow, resolving spatial resolution and heating trade-offs.

A portable transcranial magnetic stimulator head fixture secures a magnetic coil to maintain precise targeting during treatment.

Multi-channel transmitter apparatus segments power delivery across independent coils to distribute thermal load over larger skin areas.

Concentric circular electrodes eliminate edge effects to prevent uneven heating and burns while ensuring homogeneous radiofrequency field distribution.

A chest compression sensor feeds data into an electrocardiogram signal simulator to generate realistic CPR artifacts for trainee feedback.

Switching electrode polarities between hyperpolarizing and hypopolarizing states to optimize electrical stimulation delivery.

An implantable neurostimulator adjusts voltage and resistance based on tissue impedance to reduce power consumption.

An inductive switching power supply uses a magnetic field detector to trigger automatic mode transitions for implantable medical devices.

Non-linear conductors extend through insulators to reduce device volume while maintaining hermetic seal integrity and structural strength.

Coordinated energy fields heat targeted nano-particles to destroy cancer cells while minimizing damage to surrounding healthy tissue.

Dynamic field adjustment monitors device temperature and charge state to optimize recharging speed while preventing overheating.

A modular surgical hub consolidates multiple energy modules into a single stack, utilizing positional awareness sensing for unified system integration.

A compact cardiac device uses a directional antenna to stabilize telemetry signals during reduced ventricular wall motion.

Modular implantable optical sensors use hermetic sealing and standardized components to reduce production costs while maintaining reliability.

Segmenting medicinal ingredients by particle size resolves the contradiction between fast penetration speed and persistent drug administration duration.

An implantable electroacupuncture system applies stimulation pulses through integrated electrode arrays to target tissue locations.

Offset implanted microphones enable beamforming and directionality, improving signal-to-noise ratio while reducing skull-borne vibration interference.

A flexible interconnect links an implantable coil to a sealed housing, enabling dynamic repositioning that accommodates skull curvature changes and growth.

A segmented needle array enables precise electrode positioning for targeted tissue destruction.

Selection circuitry activates the most efficient concentric primary coil, resolving alignment issues caused by skin bulges.

Acoustic transducers replace electrical impedance measurements to detect needle dislodgment, eliminating grounding interference and current injection risks.