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Computational (Bio)molecular Physics

Offering:

Sem. 1, 2, 3. Class 3, Cr. 3

Prerequisites:

Recommended background is Quantum Mechanics as taught in graduate (PHYS 660 or equivalent) or senior undergraduate (PHYS 460 & 461 or equivalent) courses and some familiarity with computer programming. The course is appropriate for students from physics, chemistry, biology, materials/computer science and related disciplines.

Description:

First principle (ab initio) methods provide significant insight about the electronic structure (ES) and physical properties of structures of interest in physics, chemistry, biology and materials science. These methods are particularly useful for understanding the electronic structure of molecular systems, such as active sites in metalloproteins or molecular nanostructures, and for interpreting experiments that probe their ground or excited states. This course will offer an introduction to the underlying theory and practical applications of some computational methods of electronic structure:

* Hartree-Fock Theory
* Kohn-Sham Density Functional Theory
* Car-Parinello Molecular Dynamics

For more information, please contact Prof. Jorge H. Rodriguez (270 Physics).

Textbook(s) for Spring 2012

Textbooks for Spring 2012
Course Title Author Edition ISBN Publisher
PHYS570A RECOMMENDED: Introduction to Molecular Symmetry   S. Ogden  Latest(Jan. 1, 2002)  0198559100  Oxford Higher Education 
PHYS570A RECOMMENDED: Electron Correlations in Molecolues & Solids   P. Fulde  3rd  3540-595640  Springer 
PHYS570A REQUIRED: Density Functional Theory of Atoms & Molecules   R.G. Parr & W. Yang  May 1, 1994; Reprint edition(Paperback)  0195092767  Oxford University Press 
PHYS570A REQUIRED: Computational Physics   J.M. Thijssen  1999, Paperback  0521575885  Cambridge University Press 
PHYS570A RECOMMENDED: Modern Quantum Chemistry   Attila Szabo & Neil S. Ostlund  July 2, 1996 (Paperback)  0486691861  Dover Publications 
PHYS570A Introduction to Molecular Symmetry   J. S. Ogden  1st; (September 27, 2001)  0198559100  Oxford University Press