Time-varying stimulation patterns expand coverage and reduce manual reprogramming.
A self-aligning applicator uses segmented coils and controlled low-voltage pulses to deliver consistent whole-foot therapy at home.
Magnetic reset and programmed pairing logic help an implantable neurostimulator resume therapy after MRI when its controller is unavailable.
A controlled atmosphere with air partial pressure below 10^-6 supports dense, crack-free ceramic feedthroughs with improved hermeticity.
Sensors adjust probe speed, position, and plasma power to compensate for non-uniform delivery and maintain the specified dosage.
Direction-sensitive electrodes target tissue selectively, while dyes and fiber optics track therapy and temperature without thermal sensor interference.
An anodic-cathodic mesh generates galvanic charge to improve thrombus attachment and retrieval through an endovascular device.
A focus optic, tissue-contact window, and detector adjust EMR treatment using signal radiation for precise dermal targeting.
The algorithm adjusts stimulator compliance voltage ahead of waveform transitions, balancing pulse effectiveness with power efficiency.
Sensors monitor every compression, while threshold-based alerts guide depth, rate, and recoil without constant feedback.
Accelerometers and gyroscopes feed adaptive filtering and biomarker analysis for automatic seizure detection and vagus nerve stimulation.
Load cells under the infant platform analyze compression slope, impulse, and jerk to tailor caregiver guidance by neonate characteristics.
This case addresses proprietary interface limits by mixing concurrent wireless streams from multiple sources into stimulation signals.
This case synchronizes rhythmic multisensory stimulation with MRI scanning to support neuronal repair and personalize PSD treatment.
Specific field frequencies delocalize tight junction proteins, reversibly increasing BBB permeability for drugs and diagnostic agents.
This case uses microwave intensity and phase differences to control regional heating, improve uniformity, and prevent overheating.
A self-aligning applicator uses segmented low-voltage coils to treat the entire foot while limiting voltage and heat for home use.
Different polymeric materials form an implantable enclosure balancing mechanical strength, electrical isolation, and fluid protection.
Test pulses measure electrode heating so TTFields treatment current can be maximized within subject-specific thermal limits.
RF or ultrasound reshapes nasal tissues and valves, reducing airflow resistance without surgery or external dilators.
The system calculates therapy-based recharge needs, then presents regular intervals to reduce missed charging and battery depletion.
The circuitry settles before stimulation, disconnects the sense electrode, and delays CAP measurement to reduce artefacts.
This case uses magnetic pulses changing faster than 200 T/s to improve corneal barrier function without eye-drop administration.
A proximity intermediary and unlocking tools secure implant memory writes while long-range telemetry keeps clinicians mobile.
An implant detects conditions, prompts the patient externally, and stops signaling after acknowledgment to conserve battery life.
A biocompatible plasma stream deposits crystallized hydroxyapatite on tagua nut material for non-invasive tooth and bone restoration.
This case uses RF, ultrasound, or mechanical elements to remodel nasal tissues and improve airflow while avoiding surgical risks.
This case pauses high-frequency stimulation to sense ECAPs, then adjusts pulse parameters for closed-loop control and lower power use.
Fluid-circulated heating and cooling enables reversible nerve blockade without extreme temperatures.
Stimulus pods use intermittent heat pulses and temperature control to desensitize thermoreceptors while limiting tissue damage.
This case combines therapy devices, cardiac sensors, and user interfaces to detect persistent cardiac conditions during and after treatment.
This AMD case folds the antenna and charging coil over the PCB inside alumina, reducing bulk while preserving wireless signals.
During phrenic nerve stimulation, CMAP baselines, shifted thresholds, and QRS detection provide objective palsy alerts.
This interposer aligns weld pads between an implant feedthrough and PCB, reducing interconnect complexity for automated assembly.
Ceramic housing limits eddy-current interference around dual-band medical charging coils.
Interchangeable cartridges support treatment across pet skin areas, while integrated light therapy and ozone removal support user safety.
A removable lighted rate monitor uses LED signals to provide real-time CPR compression rate and depth feedback.
A biodegradable elastomeric socket expands for CIED insertion, then recovers to retain the device and control antibiotic release.
A buffered waveform player converts stored pulse definitions into electrode signals for flexible SCS, DRG, and DBS programming.
Accelerometer-derived activity levels dynamically set heart rate thresholds to capture heart failure and chronotropic incompetence episodes.
An OMS wound therapy device combines optical and magnetic stimulation while a shield protects electronics from coil interference.
Electrical blocking signals to vagal pathways reduce bronchial constriction without relying on patient-managed inhaler delivery.
An electronic pump and mechanical regulator counter altitude pressure shifts while cooling and humidifying donor lungs.
EEG-informed feedback combines engineering, perceptual, and physiological metrics to preserve speech intelligibility in background noise.
Interleaved TTFields pulses cool electrodes while enabling higher peak intensity.
This case uses customized stimulation frames and sensing gaps to monitor physiology, adapt parameters, and preserve efficient operation.
This case shows how three angled elliptical halo coils strengthen deep-brain fields while limiting surface overstimulation.
Separate diagnostic pinging-pulses elicit measurable ECAPs while therapeutic burst stimulation remains paresthesia-free.
A stacked implant layout aligns contacts for straight plug-in connections, reducing assembly complexity and improving space use.
This case uses internal RF energy to reshape and strengthen nasal tissues, improving airflow without external dilators or incisions.