Photonics advance could enable compact, high-performance lidar sensors
With a novel design, MIT researchers overcame a stubborn problem that has limited the effectiveness of chip-based systems for lidar.
With a novel design, MIT researchers overcame a stubborn problem that has limited the effectiveness of chip-based systems for lidar.
MIT researchers leveraged a surprise discovery to devise a faster and more precise biomedical imaging technique.
Startup accelerator program grows to over 30 companies, almost half of them with MIT pedigrees.
One year in, MIT’s hands-on 6-5 (Electrical Engineering With Computing) degree program is already one of the most popular majors among first-year students.
Light-emitting structures that curl off the chip surface could enable advanced displays, high-speed optical communications, and larger-scale quantum computers.
New technique could improve the scalability of trapped-ion quantum computers, an essential step toward making them practically useful.
Twelve START.nano companies competed for the grand prize of nanoBucks to be used at MIT.nano’s facilities.
Lincoln Laboratory transitioned its optical-amplifier technology to Bridger Photonics for commercialization, enhancing US energy security and efficiency.
Over 50 years at MIT, the condensed-matter physicist led the development of photonic crystals, translating discoveries into wide-ranging applications in energy, medicine, and defense.
Nanophotonic devices developed at MIT are compact, efficient, reprogrammable, adaptive, and able to dynamically respond to external inputs.
PhD candidate Sabrina Corsetti builds photonic devices that manipulate light to enable previously unimaginable applications, like pocket-sized 3D printers.
By performing deep learning at the speed of light, this chip could give edge devices new capabilities for real-time data analysis.
Researchers achieved a type of coupling between artificial atoms and photons that could enable readout and processing of quantum information in a few nanoseconds.
Speakers described challenges and potential solutions for producing materials to meet demands associated with data centers, infrastructure, and other technology.
In MIT’s 2025 Killian Lecture, physicist John Joannopoulos recounts highlights from a career at the vanguard of photonics research and innovation.