Ultra thin design
The walls of Insulon® components can be as thin as 0.25 mm.
High insulation performance
Insulon® regularly achieves hundreds of degrees temperature difference.
High temperature capabilities
Insulon® has a maximum operating temperature of 1000°C.
Mechanically robust
Insulon® components are mechanically robust and withstand vibration.
Food grade
Insulon® components are easily sterilized for food grade and medical applications.
Custom design
Insulon® is custom designed for your unique application.
Conserve thermal energy
More efficient performance
Reduce energy demands
Our goal is to maximize thermal insulation performance while consuming minimal space.
Our engineers work with you to custom design Insulon® to suit your application’s unique needs. The majority of Insulon® parts are built with stainless steel; alternative materials include Inconel, titanium, and other alloys.
Straight Tubes
Bent Tubes
Cans
Flexible Tubes
High Insulation Performance
Insulon® barriers consistently achieve hundreds of degrees temperature difference between the outer and inner surfaces. One feature that makes Insulon® special is its ability to perform in high temperature and high pressure environments. Rugged metal design makes our insulated components durable and long lasting.
Applications
Insulon® is used across a variety of industries including aerospace, automotive, batteries/fuel cells, consumer goods, medical and military. Applications range from ultra thin sheaths for hypodermic needles to everyday handheld devices. Every Insulon® part features the same cutting-edge thermal insulation technology, expertly customized to fit your application’s needs.
How does it work?
Insulon® Technology employs a deep vacuum space between the walls of two coaxial structures to effectively eliminate convective heat transfer. Our proprietary manufacturing process allows our vacuum spaces to be exceptionally thin and effective at a wide range of temperatures (up to 1000°C).
If desired, additional design elements may be included to reduce heat transfer due to radiation.
