Stainless steel is well-known for its electrical conductive properties as well as for its optimal thermal behaviour (resists to very high temperatures).
Static electricity is generated at the surface of two substances when they are separated thus creating severe separation of positive and negative charges accumulated at their surface.
It creates a wellknown "discharge", the degree of which is dependent on speed, pressure, moisture content and temperature.
This discharge creates a spark whose effects are:
Making material sufficiently conductive with the adding of antistatic/conductive fibres is the solution to neutralize static electricity.
Some end-uses demand that textile materials resist to very high temperature while not altering the quality of production.
Glass industry for example (car windows or glass articles) uses woven or knitted fabrics exclusively composed of stainless steel (moulds or gripping pliers are covered with stainless steel fabrics).
Stainless steel fabrics are preferred to fibre glass fabrics: they resist to a higher temperature and offer an optimal glass quality while lasting longer.
Ultra-thin stainless steel fibres (8μ to 22μ) with a high level of conductivity.
The fineness of these fibres make them suitable for textiles.
The most common type is alloy AISI 316L but other alloys are possible on request.
AISI 316L alloy (main constituants):
Fe 68 % Cr 18 % Ni 12 % Mo 2 %.