How basic research ideas become tomorrow’s new materials
Our understanding of the natural world at the sub-atomic level continues to evolve.
Consequently, we are learning how to synthesize new materials that build on the strengths of their counterparts in nature and minimize their weaknesses.
Advanced materials hold great promise for meeting our energy and defense needs. They also have tremendous potential in the medical and electronics fields.
Examples of advanced materials
- Composites used in aerospace and automotive applications
- High-hydrogen storage materials for fuel cells
- Nanoscale electronics for ultra-portable devices
- Super-hard glass or bulk amorphous alloys
- Super-conducting polymers for quantum computers
Our multidisciplinary strategy gives us a significant advantage in materials design and discovery.
Using computer modeling and simulations, ASL scientists predict the behavior of novel materials before taking them to the lab. This approach reduces costs and accelerates innovation.
ASL applies its strengths in materials synthesis, processing, and characterization to:
- Develop new materials with advanced properties
- Characterize and tailor dynamic materials response
- Apply advanced materials to industrial applications, and national defense and energy needs