Our interest in molecular evolution is stimulated by the rise in drug resistant pathogens and how understanding the physical basis for adaptation can be used for prediction of resistance and the identification of new targets and strategies for antimicrobial therapies. By combining approaches from biophysics and experimental evolution we are able to identify and characterize intermediates along the mutational pathways of adaptation and then link those intermediates to the overall evolutionary trajectory of the bacterial populations. Adaptive changes in protein sequence and expression impact organismal fitness and, consequently, dictate population dynamics. By combining experimental evolution with molecular biophysics we take a systems level view of adaptation and link it to the molecular mechanism responsible for the resulting evolutionary dynamics.
Publications/Creative Works
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Affiliations
Research Consortia
John S. Dunn, Sr. GCC for Magnetic Resonance
Training Grants
Houston Area Molecular Biophysics Training Program
Research Consortia
GCC Consortium for Antimicrobial Resistance (GCC AMR)
GCC Cluster for Cellular and Molecular Biophysics
Training Grants
Training Program in Antimicrobial Resistance (TPAMR)
Antimicrobial Resistance Training Program in the Texas Medical Center (AMR-TPT)
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