The carbon content is relatively low, generally between 0.0218% and 0.25%. Its high elongation means that during deep drawing, the material can withstand significant tensile deformation without breaking.

High strength and hardness, able to withstand large drawing forces, and performs well in deep drawing processes for applications that require high strength and corrosion resistance, such as building decoration (stainless steel handrails, curtain walls) and medical equipment (surgical instrument casings)

Aluminum itself has a low density of about 2.7g/cm ³, making it an ideal material for manufacturing lightweight products

It has the characteristics of low density and high strength. It is widely used in aerospace, automotive lightweighting, electronic equipment casings, and other fields.

Copper has excellent conductivity and thermal conductivity, making it an indispensable material in the electrical industry.

Copper has good ductility and can be smoothly deep drawn to form various complex shapes. It is also widely used in the manufacturing of pipeline systems (such as copper pipes used in plumbing systems) and electronic connectors.

Copper alloys have good ductility and can be smoothly deep drawn to form various complex shapes. It is also widely used in the manufacturing of pipeline systems (such as copper pipes used in plumbing systems) and electronic connectors.

Titanium alloys have high specific strength (strength to density ratio), good corrosion resistance, and high temperature resistance.

Such as polycarbonate (PC), acrylonitrile butadiene styrene copolymer (ABS), etc. Polycarbonate has good transparency and toughness, and can be used to manufacture optical products such as lenses and transparent shells after deep drawing. ABS plastic has good mechanical and processing properties, and is applied in deep drawing processing of electronic device casings, automotive interior parts, etc.

These engineering plastics can be deeply drawn by heating and softening, and can maintain a certain degree of shape stability after forming. They have low density, light weight, and can achieve diverse appearances by adding pigments and other methods.

Fiber reinforced composite materials are composed of fibers (such as carbon fiber, glass fiber) and matrix materials (such as epoxy resin). During the deep drawing process, fibers can provide high strength and modulus, while the matrix material plays a role in transmitting loads and protecting fibers.

This material can be used in aerospace (such as the partial structure of aircraft fuselage) and high-performance automotive components (such as the body of racing cars) through special deep drawing processes to produce high-performance, lightweight products, and optimize performance by adjusting the direction and content of fibers as needed.