Under the leadership of our CTO Thomas Eyhorn, who is a renowned expert in microporous insulation technology. With over three decades of experience, we offer customized solutions to meet the unique needs of worldwide customers.
We operate state-of-the-art research and development centers in Europe and Asia, ensuring exceptional service and continuous innovation.
Thermal simulation and combination solutions of thermal insulation materials
Customized solutions: Recipe development, covering solutions, dimensions, shapes, and mould design
Sample design and verification
Providing professional technical and commercial advice
Extensive in-house testing (Lambda values, density, shrinkage, strength, compression, etc.)
Packaging design and assembly support
Engineering services
Drawing output
Net shape pressing
Press to rectangular board or different shapes
Complex shapes
CNC milling and various cutting machines (laser cutting, sawing, etc.)
Manual manipulation
Our manual services include assembly, coating, cutting, glueing, and laminating
The microporous material’s superior insulation effect and space efficiency arise from its extremely low thermal conductivity. The microporous structure, with opacifiers, minimises all three heat transmission components – conduction, convection, and radiation – to their physical limits under atmospheric pressure.
The low conductivity of the material results from its small agglomerates of silica particles, each approximately 10 nm in size, which touch each other at only a single point. The pores, smaller than the required free path length for gas molecules, limit the transfer of energy from one molecule to the next. As a result, convection is minimised. The specified minerals restrict infrared radiation.
Microporous insulation products maintain the lowest thermal conductivity values, up to five times lower than those of conventional insulators and half as much as those of silica aerogel blankets at temperatures of 1000℃. They serve as ideal insulators, replacing ceramic fibre, calcium silicate boards, and aerogels in high-temperature or fireproofing applications.
Allows for a much thinner layer to meet the same insulation requirements, saving space where it is limited.
Achieves improved energy efficiency with the same spatial constraints, meeting strict heat loss requirements.
Enhances internal capacity by thinning the lining. The low density and thin thickness of the insulation layer result in a lighter weight.
