Frequently Asked Questions

Amorphous alloys, also known as metallic glasses, are advanced metallic materials with a grain-boundary-free and disordered atomic structure formed through rapid solidification technology.

Ordinary steel, aluminum alloys and titanium alloys have crystalline structures with internal grain boundaries and defects, making them more prone to wear, corrosion and fatigue fracture. Amorphous alloys have a uniform and dense structure, offering higher strength, better elasticity, greater wear resistance and stronger corrosion resistance.

Amorphous alloy is a high-end metallic material. It has the electrical conductivity, thermal conductivity and processing characteristics of metals, while also showing a glass-like uniform microstructure.

It is not plastic, and it is not a coating. It is a new type of functional metallic material with upgraded overall material properties.

Compared with traditional metals, amorphous alloys offer five major advantages: ultra-high strength, ultra-high hardness, ultra-elasticity, excellent corrosion resistance and strong fatigue resistance.

They also provide excellent biocompatibility, precision micro-forming capability and superior soft magnetic properties, making them advanced materials for high-end medical, robotics and precision instrument fields.

Medical-grade amorphous alloys, especially zirconium-based and titanium-based systems, can be safe and reliable for medical applications when properly designed, tested and manufactured according to medical requirements.

They are non-cytotoxic, non-sensitizing, resistant to corrosion from human body fluids and do not easily release harmful metal ions. These properties make them promising materials for long-term orthopedic and dental implants.

Traditional titanium alloys and stainless steel have a much higher modulus than natural bone, which may create stress shielding and lead to bone resorption or implant loosening.

Amorphous alloys can provide an elastic modulus closer to that of human bone, offering better mechanical compatibility and helping support bone healing. At the same time, their strength can be much higher than titanium alloys, making them tougher, more fatigue-resistant and less prone to fracture or deformation.

Amorphous alloy cutting edges can be made thinner, flatter and sharper, helping reduce cutting damage in precision medical procedures.

They have high hardness, long-lasting sharpness, strong corrosion resistance and resistance to repeated high-temperature sterilization. Their service life can exceed that of ordinary stainless steel instruments, making them suitable for minimally invasive, microsurgical and robotic surgical scenarios.

Yes. Amorphous alloys reduce the risks caused by grain boundary fatigue, wear and corrosion at the source because they do not have conventional crystalline grain boundaries.

Under harsh conditions such as high-frequency movement, repeated opening and closing, long-term implantation and multiple sterilization processes, their stability and durability can be superior to many traditional metals.

Yes. AmorCore can provide amorphous alloy plates, rods, wires and blanks. We can also customize precision finished parts for medical, robotics, precision equipment and high-end industrial applications.

Customers can send drawings, dimensions, material requirements, application conditions and performance targets for technical evaluation.

Amorphous alloys are mainly used in high-end and cutting-edge fields, including medical implants, precision minimally invasive surgical instruments, surgical robot parts, intelligent robot joints, sensing components, high-end precision equipment, aerospace components and precision molds.