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The research in our lab involves the development and application of molecular dynamics and free energy simulation methodologies (with AMBER, CHARMM, NAMD, and other programs) to biomolecular systems in their native environments. Until recently, this has focused heavily on the reliable representation of small nucleic acid duplexes in solution. Now we are begining to also look at other systems including larger DNA and RNA models, proteins, and polymeric micelle systems with a keen focus on both assessing and validating the simulation results and exposing and overcoming limitations in the methods and force fields. In addition to continued development of ptraj (see the software link) for analysis of MD trajectories, we are exploring methods to mine more information from the simulation data and means to more broadly disseminate the MD results.
Research in the lab is currently funded by various research grants, including:
This core R-01 funding supports research into the development of better force fields for simulation of RNA, attempts various means to assess and validate the performance of MD simulation as applied to RNA, and seeks to explore means to more broadly disseminate MD simulation data. Here is the link to the NIH CRISP abstract.
The consortium aims to improve the AMBER force fields; our role focuses on polarizable force fields for nucleic acids. Here is the link to the NIH CRISP abstract.
Cheatham consults related to AMBER application and development of chemical reaction capabilities.
This is a large allocation of resources on the NSF supercomputer centers to support research in the Cheatham lab.
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thomas <tec3@utah.edu> Last modified: Sometime in 2008