Exploring new paths to future quantum electronics
Jagadeesh Moodera and colleagues to investigate interface-driven phenomena in quantum materials in the quest for energy-efficient quantum electronics.
Jagadeesh Moodera and colleagues to investigate interface-driven phenomena in quantum materials in the quest for energy-efficient quantum electronics.
Associate Professor Joseph Checkelsky wins $1.7 million Emergent Phenomena in Quantum Systems Initiative grant to pursue search for new crystalline materials.
Newly synthesized compound of iron and tin atoms in 1-to-1 ratio displays unique behavior.
Circuit design offers a path to “spintronic” devices that use little electricity and generate practically no heat.
MIT researchers discover a material that changes electrical resistance only when a magnetic field is applied at a narrowly confined angle.
MIT researchers show how to make and drive nanoscale magnetic quasi-particles known as skyrmions for spintronic memory devices.
Innovative approach to controlling magnetism could lead to next-generation memory and logic devices.
Summer Scholar Stephanie Bauman interns in Luqiao Liu lab synthesizing and testing manganese gallium samples for spintronic applications.
Recently discovered phenomenon could provide a way to bypass the limits to Moore’s Law.
Materials researcher is working on the magnetic memory of the future.
Researchers have discovered a new way to tune electronic energy levels in some 2-D materials.
Summer Scholar Grant Smith works to establish parameters for making ferromagnetic thin films in the Luqiao Liu lab.
MIT-led team demonstrates paired topology and intrinsic magnetism in compound combining gadolinium, platinum, and bismuth.
Combining two thin-film materials yields surprising room-temperature magnetism.
MIT postdoc Cui-Zu Chang makes a spintronic breakthrough in the Moodera group.