Extreme Performance Thermal Interface
Ultra-Low Thermal Resistance
Reduced Bond Line Thickness
Pressure-Based Mounting Behavior
Stable Long-Term Interface Contact
Extreme Thermal Interface Material

TIM-X Series – Ultra-Low Thermal Resistance for Extreme Cooling Performance

TIM-X Series is developed for high-density systems requiring very low interface resistance, pressure-based bond line optimization, and stable thermal contact under demanding operating conditions.

Conductivity Class
7–8+ W/mK
Designed for high-load interfaces where reduced thermal resistance is project-critical.
Resistance Class
Ultra-Low
Supports thin bond line formation when applied with suitable mounting pressure.
Material Density
3.5–4.0 g/cm³
High-density compound structure for demanding thermal interface applications.
Process Focus
Pressure-Based
Optimized for controlled compression rather than excessive manual spreading.
01Key Features

TIM-X Series is positioned as an extreme-performance material platform for assemblies where interface thickness and thermal resistance must be tightly controlled.

Ultra-low bond line thickness capability
High thermal transfer efficiency
High-density compound structure
Optimized for pressure-based mounting
Excellent long-term stability
Non-electrically conductive behavior
02Technical Specifications
Thermal Conductivity7–8+ W/mK
Thermal ResistanceUltra-low
Density3.5–4.0 g/cm³
Operating Temperature-50°C to +200°C
Electrical ConductivityNo
ViscosityHigh
03Application Areas

Suitable for power-dense and high-performance assemblies where interface control, thermal load handling, and long-term contact stability are required.

  • AI accelerators
  • High-density CPUs and GPUs
  • Industrial computing systems
  • Aerospace electronics
  • Power-dense modules
04Advantages

TIM-X Series supports advanced thermal designs where material behavior, mounting pressure, and reduced interface resistance must work together.

01Supports very low thermal resistance through controlled thin-layer application.
02Improves interface contact when compressed by appropriate mounting pressure.
03Maintains stable material behavior under demanding thermal load profiles.
04Provides a high-performance platform for application-specific thermal optimization.