This preliminary program is subject to change.

Thermophysical Properties of Biological Systems


Description:
The focus of this session is the study of complex processes in biological systems. Contributions from theoreticians, simulators, and experimentalists are welcome. Suggested topics include protein-protein interactions, concentration and crowding effects on biomolecular folding and stability, misfolding and aggregation events, interactions of proteins with interfaces, and self-assembly of biological molecules.

Sponsor:
Thermodynamics and Transport Properties


Chair:
M. Scott Shell
University of California Santa Barbara
Department of Chemical Engineering
Santa Barbara, CA 93106-5080
Phone Number: (805) 893-4346
Email: shell@engr.ucsb.edu

Co-Chair:
Jeetain Mittal

Papers:
Thermodynamicall Dominant Structures in the Hydration of Aqueous Ions
Safir Merchant, Johns Hopkins University; Dilip Asthagiri, Johns Hopkins University
Loop Modeling in Proteins Using a Configurational Bias Approach
Monica Berrondo, Johns Hopkins University; Jeffrey J. Gray, Johns Hopkins University
Simulation of Helix Formation and Analysis by Lifson-Roig Theory
Ashish V. Sangwai, Tulane University; Hank Ashbaugh, Tulane University
Atomic-Level Stresses On Proteins Upon Vitrification
Thomas G. Lombardo, Princeton University; Pablo G. Debenedetti, Princeton University
A Hybrid Molecular Mechanics-Elastic Network Model for Studying Zinc Binding to a Zinc-Finger Protein
Dixit Purushottam, Johns Hopkins University; Dilip Asthagiri, Johns Hopkins University
Calculations of Absolute Stability of Proteins, Using Molecular Dynamics and Focused Dielectric Constants
Spyridon Vicatos, University of Southern California; Arieh Warshel, University of Southern California; Maite Roca, Universitat de Valencia
Biomolecular Force Fields for Lysozyme Crystal: Assessed From Molecular Dynamics Simulations
Zhongqiao Hu, National University of Singapore; Jianwen Jiang, National University of Singapore
See more of this Group/Topical: Engineering Sciences and Fundamentals