Inspiraz Technology Pte Ltd

TGS Series is a pyrolytic graphite-based thermal interface material with excellent thermal performance in both horizontal and vertical planes, which enhances the heat transfer efficiency from the original heat source. The soft and highly flexible properties allow better conformity and surface compliance between the two compressed surfaces. This high performance material is ultra-thin, light weight and can be customized to different shapes and sizes based on the application requirements. This thermally diffusive material is commonly used in handheld devices to avoid hotspots by extracting heat (generated from electronic devices) evenly over a large surface area, acting as a super lightweight heatsink. Pyrolytic graphite is designed to have covalent bonds between the graphene layers, giving it a high thermal performance in the XY directional plane. Pyrolytic graphite is produced by the thermal pyrolysis of hydrocarbons by chemical vapor deposition (CVD) at very high temperatures.  

WTP Series is a high-performance thermal interface material, which is highly flexible and has high thermal conductivity in the vertical (z-plane) direction. This TIM material is generally using polymeric resin with different options of filler, including vertically oriented carbon fiber, graphene, CNT, boron nitrate, etc. HTP series is highly flexible with good compression ratio to allow better compliance to unevenness of any surfaces. It can also be customized into different shapes and sizes based on the requirements of the application.

MBT Series is a metal-based thermal interface material made from 99.99% Indium or In90-Ag10 Indium-Silver which is very soft & ductile. It also has a high thermal conductivity in the vertical (z-axis) direction. The soft nature of Indium provides a good conformance to the unevenness between 2 compressed surfaces. It will allow a consistent thermal efficiency across the whole material. It can also be customized into different shapes and sizes based on the requirements of the application.