MIT turns “magic” material into versatile electronic devices
Work on three graphene-based devices may yield new insights into superconductivity.
Work on three graphene-based devices may yield new insights into superconductivity.
Inspired by decades-old MIT research, the new technology could boost quantum computers and other superconducting electronics.
Structure may reveal conditions needed for high-temperature superconductivity.
Electrical engineer William Oliver develops technology to enable reliable quantum computing at scale.
The findings may help researchers design “spintronic” devices and novel magnetic materials.
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.
Fiber optics built into a chip can deliver all the laser light needed to control ions for quantum computing and sensing.
Physics professor receives one of the most prestigious nongovernmental awards for early-career scientists.
New technique provides a means of interconnection between processors, opening the way to a complete quantum computing platform.
New faculty in these areas will connect the MIT Schwarzman College of Computing and a department or school.
Co-design Center for Quantum Advantage and Quantum Systems Accelerator are funded by the U.S. Department of Energy to accelerate the development of quantum computers.
Building quantum computers underground or designing radiation-proof qubits may be needed, researchers find.
“Qubit by Qubit” introduces high school students to quantum computing through a week-long summer camp and a year-long course.