Q&A: On the challenges of operating in the Arctic
How does one access and conduct research in one of the world’s harshest and most demanding environments? Lincoln Laboratory undersea systems engineer David Whelihan explains.
How does one access and conduct research in one of the world’s harshest and most demanding environments? Lincoln Laboratory undersea systems engineer David Whelihan explains.
Lincoln Laboratory transitioned its optical-amplifier technology to Bridger Photonics for commercialization, enhancing US energy security and efficiency.
Researchers studied air flow characteristics, sensor performance, and mitigation strategies within this complex subway system.
The ultrabroadband infrared frequency comb could be used for chemical detection in portable spectrometers or high-resolution remote sensors.
You can adjust the frequency range of this durable, inexpensive antenna by squeezing or stretching its structure.
The mechanical system could be used to deliver drugs in the GI tract or monitor aquatic environments.
Lincoln Laboratory's 3D microwave imaging technology for detecting concealed threats was integrated into HEXWAVE, commercially developed by Liberty Defense.
Electrodes coated with DNA could enable inexpensive tests with a long shelf-life, which could detect many diseases and be deployed in the doctor’s office or at home.
By leveraging reflections from wireless signals like Wi-Fi, the system could allow robots to find and manipulate items that are blocked from view.
Protein sensor developed by alumna-founded Advanced Silicon Group can be used for research and quality control in biomanufacturing.
Researchers from SMART DiSTAP developed the world’s first near-infrared fluorescent nanosensor capable of monitoring a plant’s primary growth hormone in real-time and without harming the plant.
MIT Lincoln Laboratory developed the system, launched recently aboard the QZSS-HP satellite, for a collaborative effort between the US Space Force and Japan.
Researchers used microneedles to inject fresh-cut crops with melatonin and delay spoilage.
With a novel simulation method, robots can guess the weight, softness, and other physical properties of an object just by picking it up.
Professor Thomas Peacock’s research aims to better understand the impact of deep-sea mining.