MIT engineers develop a hybrid process that connects photonics with “artificial atoms,” to produce the largest quantum chip of its type.

Physicists can use bright, hot lasers to slow atoms down so much that they measure -459 degrees Fahrenheit.

A new way use magnetic forces to control photons could pave the way for the next generation of computing, including quantum computers.

Simple chip powered by quantum dots allows standard microscopes to visualize difficult-to-image biological organisms.

MIT researchers grow perfectly shaped germanium tunnels on silicon oxide with controllable length.

The new method could impact devices used in imaging, machine learning, and more.

Qubits made from strontium and calcium ions can be precisely controlled by technology that already exists.

A new method determines whether circuits are accurately executing complex operations that classical computers can’t tackle.

Study of minerals widely used in industrial processes could lead to discovery of new materials for catalysis and filtering.

Researchers integrate diamond-based sensing components onto a chip to enable low-cost, high-performance quantum hardware.