“You are basically discharging something like air,” he noted. “We converted that to an excited species; basically excited oxygen.”
“We then took that energy and preserved it so that we could transfer it to an atomic iodine species,” Solomon further explained. “Then, we put mirrors on it and made the laser.”
While Solomon’s description might sound very simple, other researchers have tried it and it didn’t turn out to be quite so easy, Solomon said. Yet his team has devised a way to rise to the challenge.
“We are now in the process of trying to look at the details of the chemistry of the plasma and to try to improve it in such a way that it will essentially be a much more efficient high-energy laser than the types flying on airplanes today,” Solomon said.
He predicts this basic research technology will transition in a couple of years.
“The small companies are working on the technology transition while the universities are plugging away to try to fill in all the interesting research gaps,” Solomon emphasized.
Oxygen plasmas have a variety of potential applications to Air Force technology and particularly lasers.
Solomon’s research is mostly directed towards understanding specific oxygen-iodine plasmas and how they can be applied to high-energy systems for the Air Force.
More than 90 researchers and scientists attended the Air Force Office of Scientific Research 2006 Contractors' Meeting in Molecular Dynamics.
Organizations in attendance of the meeting included the National Science Foundation and the Office of Naval Research, Arlington, Va.; the Air Force Research Laboratory, Wright-Patterson Air Force Base, Ohio; and BioTools Inc. Dozens of researchers from universities worldwide included the Universität Göttingen, Germany, and the University of Sao Paulo, Sao Paulo, Brazil.