Corrosion-resistant and reliable under heat, suitable for critical systems and mechanical assemblies.
Ultra-resistant alloys engineered for the extreme conditions of turbines and high-heat engine zones.
Lightweight and durable alloys offering excellent strength-to-weight performance for key aerospace structures.
High-strength, low-density metals ideal for components exposed to extreme stress and temperature.

Stainless steel provides a dependable combination of strength, corrosion resistance and heat tolerance, making it a versatile material for numerous aerospace systems.
Its wide range of available grades enables the design of both structural and functional components, ensuring consistent performance in applications such as hydraulic circuits, exhaust assemblies and actuation mechanisms.
Stainless steel provides a dependable combination of strength, corrosion resistance and heat tolerance, making it a versatile material for numerous aerospace systems.
Its wide range of available grades enables the design of both structural and functional components, ensuring consistent performance in applications such as hydraulic circuits, exhaust assemblies and actuation mechanisms.
Superalloys—primarily nickel- and cobalt-based—are engineered to operate in the extreme temperature and pressure conditions typical of jet engines and propulsion systems.
Their exceptional durability, resistance to oxidation and ability to retain mechanical properties over prolonged heat exposure ensure optimal reliability for components like turbine blades, hot-section parts and combustion chambers.
Superalloys—primarily nickel- and cobalt-based—are engineered to operate in the extreme temperature and pressure conditions typical of jet engines and propulsion systems.
Their exceptional durability, resistance to oxidation and ability to retain mechanical properties over prolonged heat exposure ensure optimal reliability for components like turbine blades, hot-section parts and combustion chambers.
Aluminum alloys are widely adopted in aerospace thanks to their exceptional strength-to-weight ratio, which makes them ideal for manufacturing structural components such as fuselages, wings and load-bearing elements.
Their natural resistance to corrosion ensures long-term durability even in the harsh environmental conditions typical of high-altitude operations, guaranteeing reliability and performance across a wide range of applications.
Aluminum alloys are widely adopted in aerospace thanks to their exceptional strength-to-weight ratio, which makes them ideal for manufacturing structural components such as fuselages, wings and load-bearing elements.
Their natural resistance to corrosion ensures long-term durability even in the harsh environmental conditions typical of high-altitude operations, guaranteeing reliability and performance across a wide range of applications.
Titanium alloys combine high mechanical strength with remarkably low density, offering an optimal balance for parts subjected to intense mechanical stress.
Their ability to maintain structural integrity at elevated temperatures makes them particularly suited for engine zones, landing gear and other high-performance applications where both resistance and weight reduction are essential.
Titanium alloys combine high mechanical strength with remarkably low density, offering an optimal balance for parts subjected to intense mechanical stress.
Their ability to maintain structural integrity at elevated temperatures makes them particularly suited for engine zones, landing gear and other high-performance applications where both resistance and weight reduction are essential.