Mapping buried magnetism
MIT researchers use an optical technique to probe magnetism at a hidden interface between two exotic thin films.
Search Stories
Mixing topology and spin
MIT-led team demonstrates paired topology and intrinsic magnetism in compound combining gadolinium, platinum, and bismuth.
Physicists predict previously unseen phenomena in exotic materials
Better understanding of topological semimetals could help usher in future electronics.
Researchers find unexpected magnetic effect
Combining two thin-film materials yields surprising room-temperature magnetism.
Achieving zero resistance in energy flow
MIT postdoc Cui-Zu Chang makes a spintronic breakthrough in the Moodera group.
Research highlight: Jagadeesh Moodera
Step-by-step, the Moodera Research Group is building the essential knowledge and hardware for next-generation quantum computers.
Faculty highlight: Joseph Checkelsky
Synthesizing new physics: Assistant professor blends materials science and solid state physics to uncover new properties linked to collective behavior of electrons.
Quantum materials: A new paradigm for computing?
Diamond spintronics and graphene-based infrared detectors are among leading-edge technologies reported at annual Materials Day Symposium at MIT.
Faculty highlight: Nuh Gedik
Associate professor's work on topological insulators and atomically thin materials yields new, laser-driven approaches to materials for electronics.
How to make large 2-D sheets
MIT-led team develops method for scaling up production of thin electronic material.
Unusual magnetic behavior observed at a material interface
Findings could lead to a building block for future quantum computers, and a research tool for physics.
Newly tenured engineers
Thirteen tenure appointments are made in seven of eight academic departments in the School of Engineering.
Faculty highlight: Pablo Jarillo-Herrero
MIT physics professor has played a leading role in the development of revolutionary new artificial materials.
Spin designers
Caroline Ross and Geoffrey Beach are studying how the “spin” of electrons on nanomagnets could be manipulated to create faster, more energy-efficient computers.