A trapped-ion pair may help scale up quantum computers
Qubits made from strontium and calcium ions can be precisely controlled by technology that already exists.
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.
MIT wins $5 million grant to develop a virtual lab that will prepare students for jobs in industry and government.
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.
MIT, Singapore researchers show high-quality photonic device based on amorphous silicon carbide.
Simulations suggest photonic chip could run optical neural networks 10 million times more efficiently than its electrical counterparts.
“Metasurfaces” that manipulate light at tiny scales could find uses in cellphone lenses, smart-car sensors, and optical fibers.
MIT leads AIM Photonics Academy’s development of a technician-training apprenticeship program.
Faculty researchers share insights into new capabilities at the annual Industrial Liaison Program Research and Development Conference.
Material could be used to coat windows, save on air-conditioning costs.
PhD student designs materials that help guide light within silicon chips, and seeks to advance materials science in her home country of Bangladesh.
Scientists find a theoretical optical device may have uses in quantum computing.
Technique could be used to scale-up self-assembled materials for use as optical sensors, color displays, and light-guided electronics.
Silicon-based system offers smaller, cheaper alternative to other “broadband” filters; could improve a variety of photonic devices.