Check out what's happening this November 13-16 at the Eastern Analytical Symposium in Somerset, NJ

With its compact size, LIGHTNIRS easily fits inside of a specially designed backpack, providing a comfortable fit for a variety of tasks

Technique allows sharper detail—and more information—with near infrared light

Unique capability enables researchers to identify molecules involved in processes related to biology, environment, and energy

Claim your seat & sandwich!

For years, scientists have been striving to develop localized treatments to reduce side effects of therapeutic drugs

The history of ORNL's expertise in IR cameras, and what it means for the future

New 2,000-square-foot laboratory and office suite is a hub for research across the entire UWM campus,

A metamaterial absorber capable of highly sensitive infrared detection enhances the spectroscopy of tiny molecular details

A newly developed spectroscopy method is helping to clarify the poorly understood molecular process by which an anti-HIV drug induces lethal mutations in the virus’ genetic material. The findings from the University of Chicago and the Massachusetts Institute of Technology could bolster efforts to develop the next generation of anti-viral treatments.

A research team led by North Carolina State University has identified and synthesized a material that can be used to create efficient plasmonic devices that respond to light in the mid-infrared (IR) range. This is the first time anyone has demonstrated a material that performs efficiently in response to this light range, and it has applications in fields ranging from high-speed computers, to solar energy to biomedical devices.

Any science textbook will tell you we can’t see infrared light. Like X-rays and radio waves, infrared light waves are outside the visual spectrum.