Server

Servers and AI infrastructure generate concentrated heat from CPUs/GPUs, memory, VRMs, and power modules under 24/7 workloads. Poor heat transfer can cause throttling, reduced efficiency, and higher failure risk.

Thermal interface materials (TIMs) create low-resistance heat paths to heat sinks, cold plates, and chassis to: ① reduce hotspots and prevent throttling; ② improve long-term reliability; ③ support higher power density and stable performance.

Overview

Server (TIMs) Solutions

Modern servers and AI infrastructure run sustained, high-load workloads that generate concentrated heat from CPUs/GPUs, memory, VRMs, and power modules. If heat is not removed efficiently, systems may throttle, lose performance, and experience accelerated component aging.

Thermal interface materials (TIMs) create low-resistance heat paths to heat sinks or cold plates—supporting stable performance and higher power density.

Benefits

Thermal Materials for Data Center & AI Servers

Lower Hotspots on CPUs/GPUs

Efficient heat transfer to heat sinks or cold plates for stable, sustained compute performance.

Gap Filling for Complex Stack-Ups

Conformable materials bridge uneven surfaces—lower thermal resistance and consistent contact pressure.

Long-Term Reliability in 24/7 Operation

Options designed for thermal cycling help reduce aging and improve uptime.

Custom Converting + Fast Support

Custom thickness and die-cut parts for server layouts—rapid sampling for validation and production ramp.

Related Applications

AI Server / GPU Acceleration

igh power density on GPUs/accelerators—TIMs support stable performance with efficient heat transfer to cold plates/heatsinks.

Data Center Infrastructure

24/7 operation demands thermal stability—reduce hotspots on CPUs/VRMs/memory for better uptime and reliability.

Telecom & Networking

Manage heat in compact RF and high-speed networking hardware—improve stability and long-term reliability.

Related Infrastructure Markets

Thermal interface materials for servers are also widely used across high-power computing and communications infrastructure—helping manage heat density and improve 24/7 reliability.