Physicists uncover secrets of world’s thinnest superconductor
First experimental evidence of spin excitations in an atomically thin material helps answer 30-year-old questions, could lead to better medical diagnostics and more.
First experimental evidence of spin excitations in an atomically thin material helps answer 30-year-old questions, could lead to better medical diagnostics and more.
Work on three graphene-based devices may yield new insights into superconductivity.
The findings could lead to faster, more secure memory storage, in the form of antiferromagnetic bits.
Design of miniature optical systems could lead to future cell phones that can detect viruses and more.
A new framework calculates companies’ beneficial environmental "handprints" as well as their negative footprints, to encourage eco-friendly actions.
Cutting-edge microscope helps reveal ways to control the electronic properties of atomically thin materials.
Unconventional form of ferroelectricity could impact next-generation computing.
MIT Concrete Sustainability Hub research finds natural carbon uptake in concrete could offset 5 percent of US pavement cement production emissions.
The single piece of glass produces crisp panoramic images.
To oversee its new cutting-edge electron microscopy systems, MIT sought out Frances Ross’ industry-honed expertise.
Associate Professor Joseph Checkelsky wins $1.7 million Emergent Phenomena in Quantum Systems Initiative grant to pursue search for new crystalline materials.
Device for harnessing terahertz radiation might help power some portable electronics.
MIT researchers grow perfectly shaped germanium tunnels on silicon oxide with controllable length.
MIT graduate student Seth Cazzell shows controlling pH enables reversible hydrogel formation in wider range of metal concentrations.
“Micromechanics informed alloy design: Overcoming scale-transition challenges” focuses on bridging scale gaps.