Using the linear thermal expansion equation and the ASTM D5470 thermal impedance concept, this article explains how hot-cold cycling affects a thermal grease interface and what to check when selecting Lixing Thermal Grease.
Category Archives: Thermal Conductive Materials
When LED modules and power conversion units run hotter than simulated, the interface is often the cause rather than the heat sink. This article uses published specifications and ASTM D5470-17 to explain the role of a 0.095 mm tape in the heat path.
The same heater setting can produce different temperature histories at an LCM bonding interface. Separate sheet properties from surface flatness and assembly contact before attributing the difference to conductivity. This column explains an evidence-based evaluation framework, rather than a process guarantee.
A practical look at how thermal grease fills microscopic interface gaps and how the NIST steady-state resistance model connects thickness, heat flux, and temperature difference.
A practical look at how hardness and compression interact with assembly tolerance, surface contact, and component load in power-module thermal interfaces.
A source-grounded engineering view of nozzle geometry, pressure, flow path, and interface control when dispensing blue one-component thermal gel.
Use a validated thermal-interface view for 4W Thermal Gel, linking gap filling with process control and formula-based estimation.
A practical look at how wetting, voids, and effective contact area shape the interface performance of a two-component thermally conductive silicone encapsulant.
Starting from microscopic gaps between a heat source and heat sink, this article explains the material mechanism of phase change thermal pads, the thermal-interface-resistance model, and key selection considerations.
Starting from microscopic gaps at an assembly interface, this article explains the material mechanism of aluminum foil thermal tape, the Fourier one-dimensional conduction model, and key selection considerations.








