Advanced Technology

R&D in advanced technology focuses on inventing new materials, devices, and components to enable revolutionary system capabilities. We pursue innovation in a wide set of areas, including imagers, lasers, quantum computing, microsystems, RF technology, and chemical sensors.

Advanced Imager Technology
Advanced Materials and Microsystems
Laser Technology and Applications
Quantum Information and Integrated Nanosystems
RF Technology

Our group has pioneered imaging technologies that have enabled some of the world's most powerful telescopes and cameras for the defense and scientific communities. These technologies include charge-coupled-device (CCD) imagers for astronomical instruments, single-photon-sensitive imagers for foliage-penetrating ladar systems, and digital-pixel focal plane arrays for wide-area infrared cameras.

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When NASA made history in 2013 with the longest laser communication link ever demonstrated (from a Moon-orbiting satellite to Earth), our group was behind the satellite's laser transmitter and the ground terminals' highly sensitive photon detectors that enabled the link. We have a long history of developing advanced solid-state, fiber, and diode laser technologies for the scientific and defense communities.

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A graphic showing a red light spreading over a blue circular lens with small metal pieces on it.

In the Media

New "metalens" shifts focus without tilting or moving

Feb 22

MIT NEWS

A prototype photonic integrated circuit.

In the Media

MIT spinoff building new solid-state lidar-on-a-chip system

Dec 1

IEEE Spectrum

A square electronic chip with a red laser hitting the side of it

Lighting up the ion trap

Oct 21

More News

This image shows micro-chips for Super-DICE atop a penny for size reference.

integrated systems

Superconducting Discrete Integrated Circuit Electronics

A technology that allows system developers to combine modules produced by trusted foundries and commercial manufacturers may deliver yield enhancements and power and performance benefits to mission-critical systems.

This is an image of adiamond seed crystal that glows orange.

quantum systems and science

Diamond Magnetometer

Engineered diamonds show promising capability for use in quantum sensing of magnetic fields.

Three step progression of material in self repair, from cracked, to processing, to fully repaired.

advanced materials

Self-Healing Materials for Vibration Damping

New materials that are chemically inspired by nature could be tailored at the molecular level to dissipate vibrations in microsystems. Materials that can survive repeated external stresses could enable a next generation of enhanced microsystems.

A zoomed-in view of a metal nozzle shooting a stream of orange onto a metal surface, and a nozzle shooting a stream of purple at the orange stream of material.

advanced materials

Microplasma Sputterer

A novel method for manufacturing interconnects could open the door for 3D-printed microelectronic systems.

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What I find most exciting about our work is that it shows our sponsors the art of the possible.

Livia Racz

Group Leader

Advanced Technology

Advanced Materials and Microsystems

When an opportunity arose where I could enhance the technical direction and culture of my group and division, I took it. Hence, I am now an assistant group leader.

Melissa Smith

Scientist and Engineer in Nanotechnology

Advanced Technology

Advanced Materials and Microsystems

One of my favorite parts about this job is the idea that I could be the first person implementing a certain technique or working on an invention that no one in the world has seen yet.

Kelsey Yee

Laser Engineer

Advanced Technology

Laser Technology and Applications

I always describe what I do as a game of 3D Tetris, but all of the tetrominoes have electrical characteristics and the win conditions invariably change a few times during play.