Why some quantum materials stall while others scale
In a new study, MIT researchers evaluated quantum materials’ potential for scalable commercial success — and identified promising candidates.
In a new study, MIT researchers evaluated quantum materials’ potential for scalable commercial success — and identified promising candidates.
With SCIGEN, researchers can steer AI models to create materials with exotic properties for applications like quantum computing.
Inventions that protect US service members, advance computing, and enhance communications are recognized among the year's most significant new products.
Longtime MIT solid-state physicist brought theoretical insights to an experiment-driven discipline — and later, to film.
Plasma Science and Fusion Center researchers created a superconducting circuit that could one day replace semiconductor components in quantum and high-performance computing systems.
The “one-of-a-kind” phenomenon was observed in ordinary graphite.
The results will help scientists visualize never-before-seen quantum phenomena in real space.
Researchers achieved a type of coupling between artificial atoms and photons that could enable readout and processing of quantum information in a few nanoseconds.
MIT researchers developed a photon-shuttling “interconnect” that can facilitate remote entanglement, a key step toward a practical quantum computer.
Zoe Fisher, a doctoral student in NSE, is researching how defects can alter the fundamental properties of ceramics upon radiation.
The advance holds the promise to reduce error-correction resource overhead.
By emulating a magnetic field on a superconducting quantum computer, researchers can probe complex properties of materials.
Physicists capture images of ultracold atoms flowing freely, without friction, in an exotic “edge state.”
An MIT-led group shows how to achieve precise control over the properties of Weyl semimetals and other exotic substances.
The work could lead to ultra-efficient electronics and more.