Course Description

 

Molecular-level simulations of liquids, glasses, metals, polymers and complex biological systems open new windows onto the nanometer scale. Coupled with contemporary experimental techniques these methods promise to revolutionize how we think about the material world. This course will cover the rudiments necessary to understand and implement computer simulations on the molecular level. The course will focus on two widely used techniques: molecular-dynamics simulation and Monte Carlo simulation. Both techniques will be introduced in the context of a review of the basic theoretical background. Specifics of handling molecular interactions, boundary conditions and various equilibrium ensembles will be introduced. Lectures will address how to extract transport coefficients and correlations from simulation data and other quantities of physical interest such as local stresses and strains. Computational issues such as algorithmic complexity will also be addressed. The final weeks of the course, as time permits, will focus on new and cutting-edge advances in these methods.

 

Class Projects

 

The following pages describe projects that were prepared by students in MSE556 when it was taught as MSE693 in the fall of 2000.  In order to view the pages in their full glory it is necessary to download the free Chime plug-in from the MDL Information Systems site.

Mathieu Bouville

Using coordination number to monitor a molecular dynamics simulation of  molecular beam epitaxy in a Lennard-Jones metal

Ryan Elliot

Cubic Lattice Stability for a Lennard-Jones Binary Metal

Ramin Haghoogie

Dependence of Tensile Strength on Polymer Chain Length

Chih-Chen Hsieh

Single Polymer chain in LJ Liquids

Angela Leuking

Molecular Simulations of Carbon Nanotubes

Alan McGaughey

Molecular Dynamics Calculation of Thermal Conductivity

Alexandru Riposan

Molecular Simulations of a Thin Film under Biaxial Stress

Wei Tian

Molecular Simulations Of The Specfic Heat Of The Phase Transition of Lennard-Jones Liquid

for more information contact Prof. Michael Falk, Department of Materials Science and Engineering