System monitors radiation damage to materials in real-time
Facility could rapidly provide data on how material properties change in a nuclear reactor.
Facility could rapidly provide data on how material properties change in a nuclear reactor.
Whitehead Institute and MIT researchers uncover the detailed molecular structure of the sporopollenin polymer, an inert material key for the emergence of land plants.
High-temperature steam might be used in remote regions to cook, clean, or sterilize medical equipment.
High-speed camera shows incoming particles cause damage by briefly melting surfaces as they strike.
Researchers uncover the factors that have caused photovoltaic module costs to drop by 99 percent.
Led by “Queen of Batteries” Christina Lampe-Onnerud, Cadenza Innovation is licensing its lithium ion battery cell architecture to manufacturers around the world.
A faster, cheaper modeling method could improve our understanding of long-term atmospheric chemistry and provide a powerful tool for risk assessment.
Tiny device could replace expensive lab-scale equipment for many applications.
Kaley Brauer, Sarah Greer, William Moses, and Paul Zhang will receive DoE support to fuel research that tackles problems of national importance.
Professors Daniel Harlow, Aram Harrow, Hong Liu, and Jesse Thaler among the first recipients of new honor for advances in quantum understanding.
Matt Ellis PhD ’17 and Sam Shaner SM ’14, PhD ’18 launch a startup to develop an advanced nuclear reactor design.
Taking a page from green plants, new polymer “grows” through a chemical reaction with carbon dioxide.
Novel design could help shed excess heat in next-generation fusion power plants.
Fabrication technique could be integrated into manufacturing to make large-scale membranes.