Biophysics Concept Inventory Survey
Latham D.R., Alper J.D., Sanabria H. Biophysics Concept Inventory Survey: An Assessment in Biophysical Undergraduate Education. The Biophysicist. 2024;5(1):55-66. doi: 10.35459/tbp.2023.000256
Reply to: On the statistical foundation of a recent single molecule FRET benchmark
Gotz M, Barth A, Bohr SS, Borner R, Chen J, Cordes T, Erie DA, Gebhardt C, Hadzic M, Hamilton GL, Hatzakis NS, Hugel T, Kisley L, Lamb DC, de Lannoy C, Mahn C, Dunukara D, de Ridder D, Sanabria H, Schimpf J, Seidel CAM, Sigel RKO, Sletfjerding MB, Thomsen J, Vollmar L, Wanninger S, Weninger…
DNA controls the dimerization of the human FoxP1 forkhead domain
Kolimi N, Ballard J, Peulen T, Goutam R, Duffy FX, 3rd, Ramirez-Sarmiento CA, Babul J, Medina E, Sanabria H. DNA controls the dimerization of the human FoxP1 forkhead domain. Cell Rep Phys Sci. 2024;5(3):101854. Epub 2024/04/08. doi: 10.1016/j.xcrp.2024.101854. PMID: 38585429.
Clemson scientist Hugo Sanabria receives grant to continue cancer research
Hugo Sanabria has received a National Institutes of Health grant to continue cancer research after his Clemson University School of Health Research (CUSHR) Faculty Fellowship
DNA facilitates heterodimerization between human transcription factors FoxP1 and FoxP2 by increasing their conformational flexibility.
Coñuecar R., Asela I., Rivera M., Galaz-Davison P., González-Higueras J., Hamilton G. L., Engelberger F., Ramírez-Sarmiento C. A., Babul J., Sanabria H., & Medina E. (2023) DNA facilitates heterodimerization between human transcription factors FoxP1 and FoxP2 by increasing their conformational flexibility. iScience 26(7):107228.
Domain tethering impacts dimerization and DNA-mediated allostery in the human transcription factor FoxP1
Cruz P., Paredes N., Asela I., Kolimi N., Molina J. A., Ramirez-Sarmiento C. A., Goutam R., Huang G., Medina E., & Sanabria H. (2023) Domain tethering impacts dimerization and DNA-mediated allostery in the human transcription factor FoxP1. J Chem Phys 158(19).
Coevolution and smFRET Enhances Conformation Sampling and FRET Experimental Design in Tandem PDZ1-2 Proteins
Krishnamohan A., Hamilton G. L., Goutam R., Sanabria H., & Morcos F. (2023) Coevolution and smFRET Enhances Conformation Sampling and FRET Experimental Design in Tandem PDZ1-2 Proteins. J Phys Chem B 127(4):884-898.
Novel approach gives researchers unprecedented view of protein that plays a role in neurological disorders
Two Clemson University groups are among the international team of researchers that developed a novel and technologically advanced approach that offers an unprecedented view of a protein linked to many neurological disorders.
A blind benchmark of analysis tools to infer kinetic rate constants from single-molecule FRET trajectories
Gotz M., Barth A., Bohr S. S., Borner R., Chen J., Cordes T., Erie D. A., Gebhardt C., Hadzic M., Hamilton G. L., Hatzakis N. S., Hugel T., Kisley L., Lamb D. C., de Lannoy C., Mahn C., Dunukara D., de Ridder D., Sanabria H., Schimpf J., Seidel C. A. M., Sigel R. K. O.,…
Fuzzy supertertiary interactions within PSD-95 enable ligand binding
Hamilton G. L., Saikia N., Basak S., Welcome F. S., Wu F., Kubiak J., Zhang C., Hao Y., Seidel C. A. M., Ding F., Sanabria H., & Bowen M. E. (2022) Fuzzy supertertiary interactions within PSD-95 enable ligand binding. Elife 11:e77242.