Electrotherapy TRIZ Cases

Implantable medical device configures dynamic retransmission limits by data type to eliminate unnecessary power consumption from fixed schemes.

Mechanical switching of permanent magnets generates alternating fields for spin resonance, eliminating coil inductance and reducing energy consumption.

A multimodal catheter merges optical coherence tomography, ultrasound, photoacoustic, fluorescence, and thermal imaging with cryogenic or thermal therapy delivery.

Computer-implemented method identifies specific brain treatment regions using structural and functional MRI data to guide transcranial magnetic stimulation therapy.

A skin treatment device generates plasma to create seed electrons for multiphoton ionization.

A pain treatment method targets correlative body points instead of the pain site directly.

Replacing systemic drugs with direct current electrical stimulation reduces drug toxicity and treatment duration for onychomycosis.

A portable brain dysfunction monitor uses wavelet transforms to detect abnormal neural activity.

A cuirass ventilator adjusts internal pressure via sensors to assist patient breathing mechanics.

0.6180 Hz sine wave therapy stimulates autologous stem cell production, eliminating donor rejection risks.

Temporary nerve block with local anesthetic verifies target identity before permanent ablation, preventing adverse reactions in lung disease treatment.

Segmented rechargeable modules harvest thermal, light, and RF energy to eliminate invasive battery replacements.

Integrating the feedthrough body and hermetic seal into one structure lowers manufacturing costs while maintaining reliable sealing.

Segmented micro-coils on a conformal web concentrate magnetic flux to maintain bone density during immobilization.

Non-coherent LED arrays enhance body water energy flow to reverse protein misfolding, avoiding costly invasive pharmaceutical treatments.

A processor analyzes baseline and current motion levels from optical hemodynamic sensor signals to differentiate noise from cardiac events.

A hearing aid system uses a motion sensor to detect body-borne vibrations and applies gain compression to microphone signals.

A field concentrator enhances alternating magnetic fields locally within biological tissue to achieve targeted thermal therapy.

A multi-axis heart sound sensor produces electrical signals along nonparallel axes to capture directional cardiac vibrations.

Intratumoral electroporation delivers plasmid DNA encoding immunostimulatory cytokines to enhance T-cell activation and improve cancer tumor regression.

Behind-the-ear hearing device selects a frequency channel from a predefined series for bidirectional communication with an implantable unit.

Implantable devices exchange data via sub-threshold conducted pulses, preventing heart capture risk during coordination.

A synchronization module adjusts local clock phase and frequency across destination devices to align media playback timing.

Headpiece antenna integrates into the housing bottom wall to minimize spacing from the patient skin.

Segmenting electrodes into a 100-500 μm active tip and a five-times larger return plate controls thermal lesion dimensions while minimizing collateral damage.

Alternating magnetic field therapy system heats tumors via ferromagnetic nanoparticles, preventing healthy tissue damage through precise temperature control.

A suction electrode medical instrument delivers nanosecond pulsed electric fields to human skin tissue.

A surface barrier discharge device generates atmospheric plasma for dry cleaning and sterilizing material surfaces.

Inverted donor EEG signals enable noninvasive brain state transfer, resolving spatial localization limits of standard scalp measurements.

Segmented cassette assemblies with nested locking mechanisms resolve the contradiction between large medication volume capacity and device complexity.

An adjustment aid uses capacitive coupling to monitor alignment between external and implanted electrode arrangements.

Short duration high current test pulses measure defibrillation lead impedance without patient pain.

Replacing irreversible thermal ablation, this method uses light-sensitive proteins and a light source to reversibly modulate renal nerve activity.

A lateral retractor system uses a narrow dilator and dual-blade assembly to create surgical pathways while minimizing tissue damage.

Catheter-based ablation of the greater splanchnic nerve reduces pulmonary congestion and prevents recurrent acute decompensated heart failure.

A telemetry module retrieves graphics processing data from an implantable medical device to render patient-specific anatomical images on an external display.

Ferrite shielding redirects incoming magnetic flux to improve power transfer efficiency while reducing overheating risks in implantable medical devices.

Segmented frequency component detectors weight recent samples to determine bioelectrical brain signal phases with minimal power consumption.

A cryogenic cooling needle vaporizes fluid to cool nerve tissue and create a conduction block.

An orthosis with a variable resistance hinge locks the ankle during weight-bearing phases to prevent instability while allowing natural movement.

Digital scanning replaces manual tracing to define exact ply shapes, reducing setup time and improving manufacturing precision.

An overlapping bipolar electrode uses spiral wound active and passive segments to generate a cylindrical heat zone.

A transcranial electrostimulation system generates dual symmetric charge-balanced alternating current signals for brain delivery.

Voltage-based electrode stimulator recovers energy via inductive coupling to resolve the trade-off between high efficiency and precise charge control.

A charging controller predicts rejection periods to regulate energy transmission.

Segmenting reusable electronics from disposable patches reduces treatment time and enhances drug delivery efficiency.

A fitting subsystem archives patient data instances by removing them from main graphical user interface views.

An automated programming system selects optimal electrode configurations for spinal cord stimulation using historical efficacy data.