Electrotherapy TRIZ Cases

A retainer system holds microprotrusions for impact application to the stratum corneum.

Dynamic frequency and amplitude modulation creates effective analgesic signals that overcome limitations of conventional TENS devices.

Programming system discovers implanted medical devices via wireless links using search heuristics to identify specific units.

A hybrid rectification system switches between half-wave and full-wave modes to optimize energy transfer in implantable medical devices.

A boomerang massage tool uses a rounded S-shaped blade to deliver targeted acupressure across various body contours.

Selective electrode activation increases cortical current density without exceeding pulse generator output limits.

External programmer segments stimulation programs into marked groups, reducing clinic time while maintaining therapy evaluation completeness.

A telemetry system transmits signals to transition an implantable medical device into a protective exposure mode.

Real-time feedback adjusts stimulation to stabilize treatment against instability and unpredictability.

A recharge limiter circuit manages power flow in implantable medical devices.

Removable point stimulation elements deliver cyclical magnetic or electrical signals to biologically active hunger control points behind the ears.

Securing the flex circuit to an initial encapsulant layer resolves positioning precision issues during implantable device manufacturing.

TBX induction with Myh6 antibiotic selection yields high-purity pacemaker cells, resolving low reprogramming efficiency.

A posture detection system uses dual-axis DC and single-axis AC accelerometers to determine three-dimensional body orientations.

A general-purpose computer runs a dedicated medical device programming operating system to interface with implantable components.

Pneumatic cooling eliminates water leakage and condensation risks while enabling safe electrical stimulation integration.

Alternating RF voltage creates periodic plasma jets that prevent deep tissue damage while maximizing ablation width.

Elastomeric coupler and air interface replace gels, eliminating sterility risks while maintaining precise flow control.

Segmented magnetic coils apply opposing fields to neutralize induced currents, lowering patient discomfort during transcutaneous nerve stimulation.

An asymmetric apparatus shifts the geometric center of an implantable medical device to align with its recharge coil.

A cantilevered electrical contact spring accommodates misalignment through elastic deformation of suspended spring elements.

A surgical table uses a force sensor to detect cardiopulmonary resuscitation events automatically.

A catheter handle slider assembly uses an elastomeric element to control array deployment.

Electrical stimulation of preganglionic dorsal root fibers activates the reno-renal reflex to promote diuresis.

Segmented lithium batteries and a voltage regulator supply high current for RF telemetry, resolving internal resistance limits that restrict operational range.

An intermediary bridge extends communication range by relaying data, overcoming signal attenuation through human tissue.

A combinational iontophoretic transdermal device integrates traditional and low voltage systems into a single electrode patch.

Gradual amplitude ramps selectively activate inhibitory interneurons while preventing excitatory neuron activation that causes paresthesia.

A micro-nano sensing device uses logic circuitry and targeting agents to bind pathogenic entities.

Independent electrode drive circuits steer current while a reference electrode balances net flow to resolve impedance variability.

A 3D microwave system uses a movable power assembly to emit focused directional waves for internal body heating.

Vacuum-sealed sterile covers prevent infection risks by isolating complex implants from harmful factors.

Closed-loop adaptive AC stimulation regulates neural rhythms by synchronizing frequency and phase across multiple targets while minimizing side effects.

Replaying stored patient data through detection algorithms computes optimal parameters, eliminating manual trial-and-error evaluation delays.

An annular phased array system heats targeted tissue using high frequency electromagnetic radiation.

A moveable charging coil adjusts its position to customize the magnetic field for implantable medical devices.

Visual drag-and-drop interface defines lead-port connections, reducing programming time and ensuring therapy accuracy.

Extracting secretome from electrically stimulated cells resolves donor supply shortages and immune complications in tissue repair.

Segmenting timelines into exclusive slots prevents pulse overlap and extends battery life by managing power consumption during simultaneous stimulation.

Conductive coupling transfers earth free electrons to the human body, neutralizing reactive oxygen species that cause chronic inflammation.

Doped iron oxide nanoparticles produce heat in low AC magnetic fields, avoiding tissue damage from high-frequency treatments.

Pressure sensors estimate reservoir volume and fill status, eliminating the need for separate temperature measurement hardware.

A wireless power reception antenna array dynamically adjusts radiation patterns to manage electromagnetic field distribution.

A facial wearable device integrates airbag, heating, and vibration actuators controlled by biometric sensors.

A pre-charge amplifier circuit generates stimulation pulses using a digital-to-analog converter and scale circuit.

Electric field imaging monitors stimulation artifacts to enable closed-loop control, resolving ECAP detectability limits at sub-perception thresholds.

Capacitive coupling via a dielectric barrier prevents galvanic contact while delivering radiofrequency energy to heat penile tissue below 50°C.

Resilient mounting isolates internal prosthesis components from the housing structure to reduce mass-induced vibration dampening.