See how a compact exercise block uses gripping and sliding surfaces with a removable thermal in
Rotatable ring pulls fold into fixing grooves, letting a cold-hot therapy unit stay strap-mountable while reducing storage bulk and improving portability.
Machine learning adapts thermal control settings and predicts shivering or temperature overshoot from sensor data for better patient management.
Separate left and right auricle heaters use ear-canal anchoring to stay comfortable and fixed while heating effectively in different postures.
Shape-memory catheters coil inside the bladder to improve tumor targeting, expand coverage, and avoid invasive brachytherapy complications.
A thermoelectric palm-cooling surface extracts body heat through conduction and airflow, extending high-intensity exercise with less device complexity.
Translucent pad regions, rounded edges, and a textured thermal layer support TTM heat exchange while reducing skin irritation.
An elastic sleeve combines cold or hot therapy with compression to stay in place during movement, reduce swelling, and avoid clips or buckles.
Controlled palm cooling uses heat pipes and phase change storage to remove body heat without triggering vasoconstriction or tissue injury.
An adjustable annular breast pack uses a length-adjustable cover and fixed insulation layout to improve fit, uniform fomentation, and sweat handling.
Biometric sensors and machine learning control glabrous-area cooling to improve heat stress resilience and reduce fatigue.
Enclosed air chambers warm or cool dependent body areas without direct airflow, improving heat transfer while preserving sterile conditions.
Role-based thermal therapy screens, historical session comparisons, and after-session reports reduce interface overload for different care teams.
A flexible liquid lumen and support occlusion spread flow evenly, limiting bubbles and improving full-surface heat exchange in temperature control treatment.
A free-rotating fluid joint lets clinicians reposition TTM pad tubing without losing fluid flow, improving pad placement and thermal contact.
A wireless RF-powered implant harvests energy to heat deep target tissue locally while avoiding surface overheating and off-target effects.
Cooling or heating the sphenoid sinus resets the pituitary-driven temperature set-point to reduce fever or induce therapeutic hypothermia.
A gel-like coolant cap maintains even 14-22°C scalp cooling longer without bulky equipment, helping protect hair follicles during chemotherapy.
A removable reservoir lets ice and water be filled away from the housing while controller-managed pressure and cooling maintain effective thermal therapy.
A layered blanket uses an absorptive fabric, metal coating, and transparent layer to reflect body heat while preserving flexibility and vapor flow.