Manan Chopra
University of Wisconsin-Madison
14 Papers
117 Citations
Manan Chopra is an academic researcher from University of Wisconsin-Madison. The author has contributed to research in topics: Monte Carlo method & Retina. The author has an hindex of 9, co-authored 11 publications.
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Papers
Optimal allocation of replicas in parallel tempering simulations
TL;DR: A scheme is proposed for the optimal allocation of temperatures in parallel tempering simulations for a variety of systems including a coarse-grained protein, an atomistic model polypeptide, and the Lennard-Jones fluid.
Density of States–Based Molecular Simulations
TL;DR: This review discusses some of the more promising approaches proposed in the recent literature along with their advantages and limitations in the field of molecular simulations.
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Solution structures of rat amylin peptide: simulation, theory, and experiment
Allam S. Reddy,Lu Wang,Yu-Shan Lin,Yun Ling,Manan Chopra,Martin T. Zanni,James L. Skinner,Juan J. de Pablo +7 more
TL;DR: A new Monte Carlo method is presented to determine the free energy of distinct biomolecular conformations of rat amylin using a combination of Monte Carlo and molecular dynamics simulations, and finds that at room temperature the folded structure is more stable, whereas at higher temperatures the random-coil structure predominates.
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GNNQQNY—Investigation of Early Steps during Amyloid Formation
TL;DR: A statistical analysis of the reaction pathways shows that the dimerization reaction proceeds via a zipping mechanism, initiated with the formation of distinct contacts at the third residue (N), and asparagine residues are found to play a key role in the early stages of aggregation.
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Interactions of liquid crystal-forming molecules with phospholipid bilayers studied by molecular dynamics simulations
Evelina B. Kim,Nathan A. Lockwood,Manan Chopra,Orlando Guzmán,Nicholas L. Abbott,Juan J. de Pablo +5 more
TL;DR: Molecular dynamics simulations were employed to explore the interactions between commonly used liquid crystal-forming molecules and phospholipid bilayers and found that the presence of mesogens in the bilayer enhances the order of lipid acyl tails, and changes the spatial and orientational arrangement of lipid headgroup atoms.
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