Powering the World for Generations
Power generation is critical to a functioning economy, locally and globally. We have been a vital part of power system designs for generations. Our materials continue to advance the efficiency and potential of power systems while always looking for opportunities to increase the stability and longevity of equipment under the most demanding circumstances. We look beyond the rigors of the physical environment, which are central to your business, to the competitive landscape, offering you material advantages that result in breakthrough performance.
Turbine blade and disc materials are selected for their strength, fatigue life, and creep resistance in high-temperature environments. Nickel-base superalloys maximize component performance, allowing designers to achieve differentiated efficiency and reliability.
High-strength, precipitation-hardening, nickel-base alloy with good oxidation and sulfide corrosion resistance and superior high temperature properties
Precipitation hardening, nickel-base high temperature alloy possessing high strength in the 1200-1800°F (649-982°C) temperature range. This alloy is designed for use in severely stressed high temperature applications
Precipitation-hardening, nickel-base alloy with good strength and corrosion resistance to 1600°F (870°C)
Precipitation hardenable nickel-based alloy designed to display exceptionally high yield, tensile, and creep-rupture properties at temperatures up to 1300°F (704°C). Excellent weldability
Chromium nickel-iron base superalloy designed for high strength and corrosion resistance in the 1000-1400°F (538-760°C) temperature range
Compressors place extreme loads on blades and discs and combustor elements are exposed to extreme heat and corrosive environments. High strength, creep resistance, and fatigue life are essential to maximizing component lifetimes and system efficiency while parts must be manufactured to exact specifications where geometric stability is key.
Precipitation hardenable superalloy which exhibits a low coefficient of thermal expansion over a broad temperature range, high tensile and rupture strengths, and good thermal fatigue resistance
Chromium nickel-iron base superalloy designed for high strength and corrosion resistance in the 1000-1400°F (538-760°C) temperature range
A nonmagnetic, corrosion- and oxidation-resistant, nickel-base alloy with outstanding strength and toughness in temperatures up to 2000°F (1093°C). Excellent fatigue strength and stress-corrosion cracking resistance
Austenitic chromium-nickel modification of 304 stainless with superior high-temperature capabilities. Resists to oxidation up to 2000ºF (1093ºC) in continuous service
Increasing efficiency of gas turbines requires combustion at higher temperatures. Our materials are specifically designed to withstand higher operating temperatures without failure.
High ductility in notched sections. Can be precipitation hardened and strengthened by heat treatment
Robust high-temperature performance
Our materials are crafted to withstand high temperatures, corrosive conditions, radioactive environments, and operating stresses, to offer lifetime integrity in critical nuclear applications.
Powder metallurgy 316 type stainless steel containing varying amounts of boron and gadolinium. Gadolinium has more than four times the thermal neutron absorbing capabilities of boron. The alloy exhibits superior ductility, toughness, bendability, and corrosion resistance compared to borated stainless steel
Neutron absorbing due to boron addition while maintaining ductility, toughness, bendability, and corrosion resistance
An advanced martensitic stainless steel with a combination of strength, corrosion resistance, creep resistance, and irradiation swelling
Stainless grade with good combination of strength, corrosion resistance, creep resistance, and irradiation swelling
Austenitic stainless steel with corrosion resistance with higher tensile and creep strength
Bearings are used in high efficiency rotating equipment to maximize power transfer and reliability.
High carbon steel for components requiring high wear resistance and strength at elevated temperatures. It has been used for bearings in aircraft and gas turbine engines operating at temperatures up to 700°F (371°C)
Carburizing steel possessing good temper resistance and high case hot hardness while maintaining high core impact strength and fracture toughness. Used in gears where temperature resistance is important
Carburizable and nitridable stainless steel with superior corrosion resistance, fatigue life, creep resistance, and fracture toughness. Hard, corrosion-resistant carburized case, ductile core
Non-magnetic, cobalt-based, beryllium-free alloy exhibiting high strength, excellent corrosion resistance, and outstanding wear resistance
We can help you increase your gas turbine operating efficiency or realize higher mean time between failures (MTBF) for offshore wind. Our nickel alloys enable you to maximize efficiency through higher combustion gas temperatures. For offshore wind, our materials can guarantee structural integrity critical for longevity and maximizing uptime for difficult to service installations.
Customers call on us when they need to rethink the boundaries of specialty alloys
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