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Our research is focused on theoretical models and computer simulations in biological systems. We use a broad range of methods, including lattice models, elastic-net methods, dynamics, and all-atom physics-based computer simulations to understand the principles of biomolecular interactions at different length scales. We are using these models to guide experimentalists, with whom we are interested in collaborating to develop hypothesis-driven science in computational biology.

We have several research interests: (i) To understand the principles of sequence-structure-function relationships in proteins, i.e., how the amino acid sequence encodes a protein's specific structure and function, (ii) How dynamics governs protein mechanisms, (iii) How proteins assemble into macromolecular machines, (iv) The dynamics of protein machines, and (v) The prediction of protein-protein interactions and interfaces, taking into account chain flexibility.


News Selected Publications
Divide-and-conquer strategy key to fast protein folding in PhysOrg.com.
Our postdoctoral fellow (Dr. Z. Nevin Gerek) got a second place with her poster in the First Biodesign Postdoc Poster Symposium.
Opportunities for Graduate Students
Biological Physics Seminar - Fall 2007
Physics Colloquia - Fall 2007
1. Ozkan SB, Wu AG, Chodera JD, Dill KA, "Protein Folding by Zipping and Assembly", Proc. Natl. Acad. Sci. USA. (2007) 104: 11987-11992
2. Dill KA, Ozkan SB, Wiekl TR, Chodera JD, Voelz VA, "The protein folding problem: when will it be solved?", Curr. Opin. Struct. Biol. (2007) 17: 342-346
3. Ghosh K, Ozkan SB, Dill KA "The Ultimate Speed Limit of Protein Folding is Conformational Searching", J. Am. Chem. Soc (2007) 129: 11920-11927
We are part of Center for Biological Physics and Department of Physics
Center for Biological Physics Arizona State University Bateman Physical Sciences Building F-Wing, Room 359 Tempe, AZ 85287-1504