This case uses chromium-based bondcoat composition to prevent melting, delamination, and fire protection loss on titanium.
Alternative tungstate, molybdate, and phosphate fillers limit infiltration and cracking while preserving abradability in turbine coatings.
A ferritic stainless steel coating bonds to carbon steel rebar in-line, extending concrete service life against chloride corrosion.
Multi-cation silicate phases tailor thermal conductivity and expansion while strengthening T/EBC resistance to CMAS and vapor.
This Fe-based alloy powder uses controlled alloying ratios to improve glass forming ability, oxidation resistance, and wear resistance.
Multi-oxide zirconia layers balance low thermal conductivity, toughness, and sintering stability.
A layered gas turbine coating reacts with CMAS to form solid portions, limiting infiltration and supporting controlled shedding.
A ferritic stainless steel layer protects carbon-steel rebar while integrating cold-spray coating into high-throughput manufacturing.