Seeing an elusive magnetic effect through the lens of machine learning
An MIT team incorporates AI to facilitate the detection of an intriguing materials phenomenon that can lead to electronics without energy dissipation.
An MIT team incorporates AI to facilitate the detection of an intriguing materials phenomenon that can lead to electronics without energy dissipation.
Using ultrathin materials to reduce the size of superconducting qubits may pave the way for personal-sized quantum devices.
New work on superconducting kagome metal will aid design of other unusual quantum materials, with many potential applications.
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.
MIT engineer oversees design and testing of key magnet components for the Institute's SPARC fusion project.
New findings might help inform the design of more powerful MRI machines or robust quantum computers.
After decades of plasma physics research, Senior Research Scientist Brian LaBombard is taking on magnets for MIT’s new fusion effort.
Faculty from the departments of Physics and of Nuclear Science and Engineering faculty were selected for the Early Career Research Program.
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.
By selectively heating specific phonons without heating the entire material, researchers have enhanced ion diffusion in a way that could have broad applications.
Whether testing high-field fusion magnets or his own physical endurance, Theo Mouratidis pushes the limits.
Work on three graphene-based devices may yield new insights into superconductivity.
MIT research team finds machine learning techniques offer big advantages over standard experimental and theoretical approaches.
MIT Energy Fellow Richard Ibekwe finds flaws in high-temperature superconducting tapes so they can be measured, fixed, or embraced.