Electrotherapy TRIZ Cases

Implantable neurostimulators blend stimulation pulses from distinct program sets to enable seamless therapy transitions.

Helically wound runners create specific electromagnetic effects that enhance growth rates and yield in agricultural organisms.

Radionuclide-labeled biomolecules absorb RF signals to heat tumors, reducing damage to surrounding healthy tissue.

Analyzing respiration rate distributions via statistical parameters like skewness and kurtosis differentiates stable from decompensated heart failure states.

A retainer assembly with a compressible collar secures lead connector ends in implantable pulse generators.

A near-field impedance model converts vector-based measurements into individual electrode values.

Functional connectivity MRI identifies specific brain regions for transcranial magnetic stimulation targeting.

Catheter-based neuromodulation reduces ovarian sympathetic drive to treat polycystic ovary syndrome without systemic side effects.

A rotatable beauty instrument uses a photoelectric synchronization device to drive automatic extension and retraction of its working head.

Segmenting the reusable probe from a disposable adhesive pad resolves hygiene contamination and attachment complexity in electromedical devices.

Magneto-electric nanoparticles replace ligand targeting with field-driven accumulation, overcoming limited EPR effect and enabling precise cell stimulation.

A unified graphical user interface displays acoustic and electric stimulation levels in a comparable audiogram format.

Error modulation circuitry transmits fault data via the charging coil to an external charger, enabling diagnosis without device explantation.

Electrical stimulation via the pedicle screw detects wall breaches, preventing neurological impairment from inaccurate assessment.

Angled magnetic axis reduces torque during MRI while maintaining attraction force for external devices.

Acoustic scene synthesis convolves sound waveforms with head-related impulse responses to optimize cochlear implant parameters across diverse environments.

Segmented energy phases create distinct coagulation zones to minimize unnecessary tissue damage while ensuring effective nerve blocking.

A variable-thickness inflatable member directs electric fields toward tissue walls, reducing damage to healthy surrounding areas during ablation.

A transcutaneous charging device uses a control unit to initiate charging indications for implantable medical devices.

Electromagnetic coil pairs generate pulsed fields to stimulate tissue repair without invasive procedures.

Segmented four-part housing shields electronics from shocks while recessed ports enable easy connector access to resolve manufacturing complexity.

A rehabilitation device combines EMG biofeedback sensors with a pneumatic air-muscle actuator to guide repetitive joint movement exercises.

A wearable device embeds electrodes and a control unit that measures impedance to verify physical placement.

Periodic receiver activation reduces power consumption while maintaining reliable data transmission in implantable medical devices.

Processing circuitry models brain tissue to define inter-contact distances along a conformable grid of modular electrodes.

A biocompatible ceramic feedthrough enables RF signal transmission through a hermetically sealed hearing device housing.

A threshold optimization method determines optimal parameter settings for nerve stimulation therapy.

A surgical handpiece tip uses coaxial tubes to deliver heated fluid pulses directly at the incision site.

A personal emergency alert device transmits geolocation data via cellular networks to designated recipients.

An electrode array with integrated sensors detects muscle activity to guide stimulation pulses.

An implantable medical device detects an activation field from a triggering device to select a specific communication initialization mode.

A tungsten identification tag embedded within a hermetically sealed metal case enables unique device tracking via radiographic imaging.

Non-sinusoidal pulsating waveforms applied via headphones produce residual inhibition, extending tinnitus relief from minutes to days.

Bipolar radiofrequency energy remodels nasal valve tissue, reducing airflow resistance without surgical incisions or implants.

External electrodes with a dielectric layer form a non-contact capacitively coupled interface to sense conductive signals from an implantable medical device.

Series inductor and resistor modules attenuate radio frequency energy along electrode cables.

A positioning aid for transcranial magnetic stimulation uses a movable connection between the head unit and support arm to maintain coil alignment.

Segmenting rechargeable and backup batteries maintains reliability during recharging.

A reprogrammable intraocular implant uses a tunable liquid crystal lens to adjust optical power dynamically.

A remote audio processor module distributes signal processing workload to reduce behind-the-ear unit size and complexity.

Microcoagulation targets aberrant dorsal root entry zones identified via intramedullary recordings, resolving below-level pain relief challenges.

Functionalized sub-micrometric magnetic particles target sanctuary site tumors, enabling localized hyperthermia while minimizing damage to healthy tissues.

A vector potential generation device applies non-contact electrical stimulation to deep tissue layers using a specialized wire annulus configuration.

A retention form secures a rechargeable battery within an implantable medical device housing.

A seizure severity index quantifies autonomic, neurologic, metabolic, and endocrine indices to identify extreme epileptic events.

A leadless cardiac pacemaker features a docking member with head and neck portions to facilitate device delivery.

Segmented circular coils create a broad stimulation area while maintaining eddy current density, reducing reliance on precise positioning accuracy.