MIT engineers design proteins by their motion, not just their shape
An AI model generates novel proteins based on how they vibrate and move, opening new possibilities for dynamic biomaterials and adaptive therapeutics.
An AI model generates novel proteins based on how they vibrate and move, opening new possibilities for dynamic biomaterials and adaptive therapeutics.
New insights into metallic cracks that harm battery performance could advance the longstanding quest to develop energy-dense solid-state batteries.
Participants learn how laser “fingerprinting” can help identify materials in fields ranging from law enforcement to art restoration.
Fourth Power, founded by Professor Asegun Henry, is developing thermal batteries for efficiently storing excess electricity from utility grids and power producers.
Professor Jesse Thaler describes a vision for a two-way bridge between artificial intelligence and the mathematical and physical sciences — one that promises to advance both.
Using boron nitride nanotubes, mechanical engineering doctoral student Palak Patel develops materials for space that block dangerous ionizing radiation.
MIT researchers uncovered the physics behind bubble-removing membranes that could improve bioreactors, chemical production, and more.
The X-ray diffraction and imaging facility at MIT.nano adds a new tool to support research in a wide variety of disciplines.
In STS.059 (The Bioeconomy and Society), students explore the social and political factors at work in the biology, biotech, and biological engineering sectors.
Overcoming challenges of 3D printing with multiple functional materials, MIT researchers fabricated an electric linear motor in hours.
Associate Professor Rafael Gómez-Bombarelli has spent his career applying AI to improve scientific discovery. Now he believes we are at an inflection point.
The flexible material could enable on-demand heat dissipation for electronics, fabrics, and buildings.
Professor of the practice Carlo Ratti designed this year’s Olympic torch with the ethos and principles he brings to his work at MIT.
For the first time, the new scope allowed physicists to observe terahertz “jiggles” in a superconducting fluid.
MIT researchers’ DiffSyn model offers recipes for synthesizing new materials, enabling faster experimentation and a shorter journey from hypothesis to use.