An MIT team precisely controlled an ultrathin magnet at room temperature, which could enable faster, more efficient processors and computer memories.

The method lets researchers identify and control larger numbers of atomic-scale defects, to build a bigger system of qubits.

Fusion’s success as a renewable energy depends on the creation of an industry to support it, and academia is vital to that industry’s development.

The work demonstrates control over key properties leading to better performance.

The approach directly converts the greenhouse gas into formate, a solid fuel that can be stored indefinitely and could be used to heat homes or power industries.

MIT researchers show how topology can help create magnetism at higher temperatures.

MIT researchers develop a protocol to extend the life of quantum coherence.

MIT Plasma Science and Fusion Center will receive DoE support to improve access to fusion data and increase workforce diversity.

Fusion Undergraduate Scholars (FUSars) program offers students in-depth research opportunities in fusion science and energy.

By fine-tuning the spin density in some materials, researchers may be able to develop new quantum sensors or quantum simulations.