A wireless sensor captures pelvic floor action potentials and transmits data to a mobile device.
Segmenting telemetry coils into separate transmission and reception units resolves the trade-off between transmission current and reception sensitivity.
An intermediary service verifies credentials to enable non-dedicated platforms to monitor implantable devices while maintaining regulatory compliance.
External device interrogates implant data to transmit processed information, reducing clinical visit frequency.
Magnetic levitation positions a TMS device above the cranium to eliminate contact discomfort while preserving targeting precision.
Bipolar electrode configuration eliminates edge effect heating and cryogenic cooling requirements in single-frequency radio frequency systems.
A battery charging method adjusts termination parameters using previous session duration data to optimize charge cycles.
An intermediary spacer decouples thermal conduction from electromagnetic induction, preventing eddy current heat accumulation in implantable devices.
Capacitive coupling enables selective vagus nerve stimulation while avoiding pain from nearby nerve activation.
Female connector with flexible non-conductive and conductive portions expands to create secure contact pressure.
A medical-electrode hydrogel uses a laminate structure to maintain adhesive force on skin and electrodes.
Merging EEG electrodes onto the TMS coil housing reduces system complexity while enabling real-time brain activity monitoring.
An independent pulsed electromagnetic field generator on a massage mount frame enhances therapeutic effects while reducing component replacement costs.
A hearing prosthesis adjusts stimulation control signals based on real-time environmental classification to improve sound perception.
A controller adjusts open-loop stimulation timing to compensate for closed-loop bursts.
An angled laser module fixed to a reservoir directs 630-640 nm light to predetermined body areas, eliminating manual positioning during ionization therapy.
Flexible sheaths maintain consistent electrical contact across varying patient sizes and body shapes.
Counterweighted arms on a curved rail stabilize transcranial magnetic stimulation coils, reducing operator fatigue during precise positioning.
Sensing electrodes detect vagus nerve proximity to select active stimulation sites, reducing energy consumption while maintaining treatment effectiveness.
A treatment apparatus records patient symptom data via an electronic interface to enable personalized magnetic field therapy.
A catheter system deposits radioactive seeds into tissue to ensure complete ablation beyond thermal limits.
Fast Fourier Transform analysis isolates atrial signals from QRS complexes to locate fibrillation drivers for precise ablation.
Segmented plug design with nested sealing reduces manufacturing complexity while maintaining dimensional tolerances for active implantable leads.
Encapsulating the axially compressed connector stack in a polymer layer simplifies manufacturing while maintaining electrical contact reliability.
Variable frequency patterns coordinate laser and LED activation pins to re-integrate primitive reflexes impeding healing.
Intermittent neuromuscular electrical stimulation promotes human myogenic precursor cell engraftment and differentiation into mature muscle tissue.
Bioremodelable extracellular matrix encasements reduce inflammatory and thrombotic reactions in implanted medical devices.
A communication adapter bridges an implantable medical device and a mobile phone using MICS telemetry and USB-OTG interfaces.
A pluggable plasma discharge tube generates cold quasi-glow plasma using a single electrode and low-voltage DC power supply.
A multilayer casing device channels electromagnetic radiation through alternating copper and textile layers to attenuate signal exposure.
Implanted medical devices transmit alert signals via transcutaneous energy transfer coils to maintain reliability when wireless paths fail.
An integrated headpiece combines external components into a single unit using magnetic retention.
Medical device entrains bioelectrical brain signals by delivering electrical stimulation at a first frequency to shift oscillation patterns.
Segmenting hub identifiers into context-specific filter lists reduces power consumption by minimizing interactions with irrelevant wireless controllers.
Porous sintered electrodes replace fragile etched designs to boost energy density and reliability while maintaining compact volume for medical implants.
A fitting method uses current spread characteristics to set initial stimulation currents for cochlear implant electrodes.
A hearing aid system generates an ear mesh model to calculate acoustic responses and identify optimal microphone placement for each user.
Replacing electrolytic capacitors with a solid-state design using CaCu3Ti4O12 and BaTiO3 eliminates complex housing requirements.
A supine cycle device integrates a sliding support and functional electrical stimulation to maintain muscle tone in bedridden patients.
Segmented connector housing with a movable header secures multiple leads, reducing connection time for parameter optimization.
Two one-piece steel base elements with recesses hold rod-shaped permanent magnets, simplifying assembly and reducing component complexity.
Oscillating magnetic fields heat conducting particles to destroy tumors without invasive incisions or ionizing radiation.
Increasing pulse width above 0.5 milliseconds reduces sensory recruitment and fatigue while lowering current requirements for efficient blood flow.
A neural stimulation system synchronizes therapy delivery with respiratory cycles to enhance vagal nerve treatment effectiveness.
A composite bore structure reduces lead insertion force by applying low friction materials to the main section.
Hybrid meta-learning and mathematical programming reduce manual programming time by analyzing neural recordings for precise parameter selection.
A skin care device merges electroporation currents with chromotherapy light to enhance treatment effectiveness.
Segmented polyester film covers resolve the contradiction between minimizing internal volume and achieving complex three-dimensional formability.
Low-frequency electromagnetic field generator creates magnetic resonance with coronavirus particles to weaken and expel the virus from the patient body.
A cochlear implant system uses a weighted matrix to map musical intervals to stimulation sites for individualized tonotopic adjustment.