Ion Beam Sputtering (IBS) Coating makes use of an ion to give rise to a relatively focused ion beam aimed at the target material (metal or dielectric) to be sputtered. The structure of the IBS coatings system is an ion source, a goal, and the substrate. The beam is customarily generated through an ion gun which is focused on the target where the sputtered target material is then installed onto the substrate to generate the film. The ions contain identical dynamism making the process highly collimated.

When to use Ion Beam Sputtering (IBS) Coatings?

The following are reasons why you must choose IBS Coatings:

  • Environmental Steadiness: Coating formed during collimated mono enthusiastic conditions is vital to ion beam sputtering because its products is very even and steady such that when they are applied, it is capable of giving consistent and long-lasting effects.
  • Highest Precision Coatings: Ion beam sputtering is a method of Physical Vapor Deposition (PVD), and it offers the highest precision when compared to other PVD techniques. It gives you control over some of the parameters, which include ion density, target sputtering which other techniques may not likely offer. Its capability to control these given variables makes IBS coating the most clear-cut option, making them ideal for semiconducting purposes or precision optics where high-quality films are required.
  • Low Absorption and Smattering: The IBS technique yields thin film deposition approaches with the utmost promising transmission for heavier films which possess low absorption and smattering traits as when compared with those created by other PVD techniques.
  • Automation: The Ion Beam Sputtering process is programmed, so it doesn’t require a lot of observation to deliver superior products and in outstanding time.

Applications of IBS Coatings

  • High barrier plastics using nanoscope inorganic films.
  • Physical sputtering and sputter deposition.
  • Physical vapor deposition of magnesium alloy.
  • Ion Beam Sputter Etching.
  • Deposition of high-performance coatings.
  • Smart coatings for textiles.
  • Degradation by other forms of radiation.
  • Element fabrication and characterization.