Projects

Lincoln Laboratory is fabricating superconducting qubit circuits for the U.S. research community, accelerating progress in quantum technology.

An innovative approach to additive manufacturing of multimaterial glass items precludes the need for costly high-temperature processing techniques.

Unconventional memory circuits can accelerate data processing in cyber sensing devices by reducing the latency of matching complex data patterns to specialized processing pipelines.

A low-cost, reconfigurable radio receiver architecture provides an alternative approach to filter out unwanted transmissions in millimeter-wave (MMW) signals.

A new type of fiber could transmit the high-power light needed for future deep-space science and exploration missions.

The laser communications payload has delivered terabytes of data from a satellite to Earth at record-breaking rates that will transform future science missions.

A constellation of small satellites is collecting rapidly refreshed weather data to advance studies of hurricane structure and intensity and improve forecasts.

A new approach to materials discovery aims to expedite the process of deploying new materials for specific mission needs.

Optical atomic clocks are the most accurate in the world, but they are very large, sensitive instruments. We are transforming the complex components of these clocks into a compact, portable platform.

We developed a ladar that samples at the diffraction limit to collect high-resolution imagery for geospatial mapping missions.