5595S-20

The 5595S-20 from 3M represents a breakthrough in Thermal - Pads, Sheets technology, engineered for high-performance thermal management solutions. This advanced thermal interface material delivers exceptional heat dissipation capabilities while maintaining electrical insulation properties. With its innovative composition and precision engineering, this product sets new standards for reliability in demanding applications.As a premium Interface Pad, Sheet, this product combines superior thermal conductivity with mechanical flexibility. Unlike standard interface materials, it maintains consistent performance under varying pressure conditions, making it particularly effective for uneven surface applications.Available in Rectangular configurations, this thermal pad accommodates diverse component geometries. The precision-cut edges ensure optimal coverage while minimizing material waste during installation.With standard dimensions of 300.00mm x 210.00mm, this solution fits most common electronic enclosures. The size-optimized design allows for efficient thermal pathway creation without compromising space constraints in compact assemblies.Featuring a precise 0.0790" (2.000mm) profile, this material achieves optimal balance between thermal transfer and mechanical compliance. Thinner variants provide minimal interface resistance, while thicker options offer superior gap-filling capabilities.Constructed from high-grade Silicone Elastomer, this pad exhibits exceptional thermal stability across wide temperature ranges. The advanced composite formulation resists degradation while maintaining consistent thermal performance throughout its service life.The Polyethylene-Naphthalate (PEN) reinforcement provides dimensional stability during handling and installation. This robust support layer prevents material tearing while maintaining flexibility for conformal applications.The distinctive Gray appearance facilitates easy visual inspection during quality control processes. This color-coding system aids in quick identification within complex BOM structures.Delivering outstanding 1.6W/m-K performance, this material outperforms traditional thermal interfaces by up to 40%. Its anisotropic properties enable directional heat flow for targeted cooling solutions.