Amorphous metals (BMGs) are ideal for biomedical applications due to their unique amorphous structure, offering excellent corrosion resistance and biocompatibility.
They are suitable for medical devices, surgical instruments, and implants due to their high strength, elasticity, and wear resistance.
Precision molding of amorphous metals enables cost-effective production of high-performance, high-precision components, surpassing the accuracy of metal injection molding (MIM).
These materials provide a lower-cost alternative to machining for manufacturing complex, high-precision metal parts.
Amorphous Metal Attributes
High strength
Extremely high elasticity
Relatively low stiffness (elastic constants)
High wear resistance
High corrosion resistance
Biocompatibility
Potential Applications
High performance-high precision parts for medical devices
Technical expert in BMG materials and processing, with a special emphasis on additive manufacturing, with over 14 years of combined academic, industry, and startup experience.
Ph.D. in material science & engineering, with focus on amorphous metals, from Saarland University in Germany. Member of European Powder Metallurgy Society.
Principal Scientist at JPL/NASA. Pioneer in amorphous metals with over 19 years of working with amorphous metal.
Ph.D. in amorphous metals from Caltech: Designing Bulk Metallic Glass Matrix Composites with High Toughness and Tensile Ductility. Inventor/ co-inventor on close to
Technical expert in BMG materials and processing, with over 15 years of combined academic, industry, and startup experience in metals and amorphous metals.
Ph.D. in materials science, with focus on amorphous metals, from Caltech: Study of the Origins of Toughness in Amorphous Metals. Inventor on 21+ BMG-related patents.
Previously the CMO of a public cybersecurity company (acquired by OpenText), head of Product Marketing for $6B product line at Oracle, and Head of Product Management, Marketing, and Strategy for SeeBeyond.