A10235-36

The A10235-36 by Laird Technologies - Thermal Materials pioneers advanced Thermal - Pads, Sheets solutions for wearable health monitoring devices. This ultra-thin thermal interface material enables efficient heat dissipation in compact biosensor designs while maintaining skin-contact safety.As a medical wearable Sheet, this product offers unprecedented thinness without compromising thermal transfer. The 0.1mm variant provides 20% better thermal performance than conventional wearable thermal materials at equivalent thicknesses.Precision-cut in Square configurations, this solution fits compact wearable form factors. The micro-patterned edges enhance flexibility while maintaining thermal pathway integrity.With 457.20mm x 457.20mm dimensions, this material accommodates standard wearable sensor footprints. The ultra-compact design enables efficient thermal management in wrist-worn and patch-type health monitors.Featuring ultra-thin 0.0600" (1.524mm) options down to 0.05mm, this material enables sleeker wearable designs. The nano-engineered structure maintains thermal performance despite minimal material volume.Formulated with skin-safe Silicone Elastomer, this pad exhibits exceptional breathability. The microporous structure allows moisture vapor transmission while maintaining thermal contact efficiency.Featuring Tacky - Both Sides properties, this solution offers skin-friendly bonding. The hypoallergenic formulation maintains secure attachment without causing irritation during extended wear.The Fiberglass system enables easy handling during high-volume production. This specialized release liner allows precise placement in automated assembly processes.The White pigmentation meets cosmetic requirements for wearable devices. This skin-tone adaptable coloring system blends seamlessly with various wearable product designs.With wearable-optimized 0.53°C/W values, this material minimizes thermal buildup in continuous monitoring devices. The result is improved sensor accuracy and enhanced user comfort.Delivering 3.0W/m-K performance, this material prevents localized heating in wearable sensors. The isotropic properties ensure even heat distribution across the entire contact area.