Lisa Michelle Jones (born February 1977) is a professor of chemistry and biochemistry at the University of California, San Diego (UCSD).[1] Her research is in structural proteomics, using mass spectrometry (MS) together with fast photochemical oxidation of proteins (FPOP), allowing researchers to study the solvent accessibility of proteins experimentally.
Early life and education
Jones became interested in science as a freshman at high school, where she took part in a national Science Technology Engineering Program.[2] She earned a BS in biochemistry at Syracuse University in 1999.[3] Jones completed her PhD at Georgia State University and specialized in structural biology.[4]
After her postdoctoral research, she joined Indiana University, where she became an associate professor.[8][9] She moved to the University of Maryland School of Pharmacy in 2016.[10]
In her research, Jones focusses on structural proteomics, having developed fast photochemical oxidation of proteins (FPOP) which uses an excimer laser for photolysis, which generates hydroxyl radicals. Hydroxyl radicals go on to oxidise the side chains of amino acids and provide solvent accessibility of proteins within a cell.[11] FPOP can provide information on the sites of ligand binding, protein interaction and protein conformational changes in vivo. More recently, her group has extended the platform with a no-flow platform for high-throughput in-cell measurements.[12]
Jones also works on science outreach and improving representation in the sciences. She is a mentor in the UMD CURE Scholars Program [14][15] and a member of the American Society for Mass Spectrometry Diversity and Outreach Working Group.[16] Jones is also co-director of the Initiative to Maximize Student Development (IMSD) Meyerhoff Graduate Fellowship Program, a program for increasing representation of minority students in STEM.[17]
^Maleknia, Simin D.; Ralston, Corie Y.; Brenowitz, Michael D.; Downard, Kevin M.; Chance, Mark R. (2001). "Determination of macromolecular folding and structure by synchrotron x‐ray radiolysis techniques". Analytical Biochemistry. 289: 103–115. doi:10.1006/abio.2000.4910. PMID11161303.