Fast-tracking the search for energy-efficient materials
Doctoral candidate Nina Andrejević combines spectroscopy and machine learning techniques to identify novel and valuable properties in matter.
Doctoral candidate Nina Andrejević combines spectroscopy and machine learning techniques to identify novel and valuable properties in matter.
New work on superconducting kagome metal will aid design of other unusual quantum materials, with many potential applications.
The new observations record a key crossover from classical to quantum behavior.
Work has potential applications in quantum computing, and introduces new way to plumb the secrets of superconductivity.
The Max Planck Society and Alexander von Humboldt Foundation honor the MIT physicist's work on two-dimensional quantum materials.
The results open possibilities for studying gravity’s effects on relatively large objects in quantum states.
The design, which uses entangled atoms, could help scientists detect dark matter and study gravity’s effect on time.
A quantum effect in topological semimetals demonstrated by MIT researchers could allow for the utilization of an untapped energy source.
Quantum computers could usher in a golden age of computing power, solving problems intractable on today’s machines.
In a new realm of materials, PhD student Thanh Nguyen uses neutrons to hunt for exotic properties that could power real-world applications.
Physicist and Martin Luther King Jr. Scholar is examining the optical properties of semimetals to understand how light interacts with quantum materials.
Funding will support using light to study quantum materials and on twistronics research to advance superconductivity and quantum technologies.
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Exotic states called Kohn anomalies could offer clues to why some materials have the electronic properties they do.
Jagadeesh Moodera and colleagues to investigate interface-driven phenomena in quantum materials in the quest for energy-efficient quantum electronics.