Hardide Coatings

Semiconductor component lifespans are limited mainly by surface degradation – wear, plasma erosion, corrosion, contamination and thermal cycling. Explore how surface coatings like CVD can be transformative for equipment longevity.

Abrasive particles and high-velocity flow are quietly wearing down your low-alloy steel components. Here's how to design against it.

Reducing semiconductor downtime is not only about faster maintenance. Learn how improving the surface durability of components exposed to wear, plasma erosion and chemical attack can extend production uptime.

Corrosion fatigue is one of the leading causes of premature cracking in components operating under cyclic stress. Traditional coatings such as HCP and HVOF introduce micro-cracks and porosity that accelerate failure - not prevent it. This guide explains why coatings fail under real-world conditions and how CVD coatings provide a pore-free, crack-free barrier that resists both corrosion and fatigue.

Traditional coating methods like HVOF and PVD weren’t designed for complex components with internal channels and hard-to-reach surfaces. Achieving uniform protection in these areas remains a challenge, often leading to inconsistent coverage and performance issues. This guide explores the key obstacles engineers face when coating complex geometries - and the alternative solutions that deliver precise, reliable protection where it’s needed most.

Components operating in erosive environments often wear earlier than expected. Particle velocity, impact angle and material behaviour can significantly influence coating performance in real operating conditions. This guide explores where traditional coatings fall short and what design engineers should consider when specifying coatings to extend component life.