Maintains dimensional stability under constant stress at elevated temperatures.
Withstands the expansion and contraction cycles of frequent startups and shutdowns (peaking plants).
Resists steam-side oxidation and hot corrosion from combustion byproducts.
Ensures critical rotating components can handle emergency stops and transient loads.
Our materials are engineered to survive the unique stresses of energy conversion.
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The heart of the turbine requires materials that can survive centrifugal forces at temperatures exceeding 1200°F. Our nickel-base superalloys are designed for maximum fatigue life.
Exceptional yield and creep-rupture properties; the workhorse of high-temp turbines.
High-strength nickel alloy with superior oxidation resistance to 1600°F (870°C).
Precipitation-hardening alloy with superior high-temp properties for discs and fasteners.
Drive shafts must transmit immense mechanical power while resisting fatigue. Our double-vacuum-melted steels provide the toughness needed for large-scale rotors.
Carburizable stainless steel with a step-change in fatigue life and dimensional stability.
Premium stainless steel with superior fracture toughness for high-torque loads.
High-strength alloy steel designed to handle extreme transient loads and vibration.
High-temperature bolting and structural components ensure the pressure vessel and turbine casing remain secure under thermal expansion.
Iron-base austenitic stainless steel providing high strength from room temp to 1300°F.
High-yield alloy optimized for resistance to stress corrosion and thermal stress.
