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Etomica:
General Simulation Design Tool
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Purpose:
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Visual environment
for quickly designing and constructing simulation appletts by dragging and
dropping simulation components including the type of: simulation cell,
molecules, interactions, numerical integrator, boundary conditions, display
monitors, etc.
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Applicable
Classes:
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unlimited
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Author:
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David
Kofke
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Affiliation:
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State
University of New York at Buffalo
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Date
Posted:
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July 2,
2001
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Multicomponent
Phase Equilibrium
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Purpose:
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Molecular
simulations are used to elucidate the concept of chemical potential in
multicomponent systems, and how the chemical potential relates to
multicomponent phase equilibrium.
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Applicable
Classes:
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Thermodynamics
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Author:
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Daniel
Lacks
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Affiliation:
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Tulane
University
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Date
Posted:
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July 2,
2001
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Vapor Liquid Equilibrium
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Purpose:
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Provide
a molecular visualization of the equilibrium vapor and liquid phases
corresponding to real binary mixtures. Students at any level in their
curriculum can get a better feel for the relationship between the
interactions between molecules and the resultant extent of the phases (mass
balances) and the equilibrium compositions (equality of component chemical
potentials).
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Applicable
Classes:
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Separations,
Material and Energy Balances, Thermodynamics
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Author:
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Richard
Rowley
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Affiliation:
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Brigham
Young University
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Date
Posted:
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July 2,
2001
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Molecular Aspects of Thermal Conductivity
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Purpose:
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Using an
interactive simulation applet, the module attempts to strengthen the link
between traditional macroscopic engineering approaches to heat transfer and
the concepts from kinetic theory that students learn in physical chemistry
courses. Students will learn what properties influence the ability of
different materials to conduct energy, as well as how the transport
coefficients can be calculated from knowledge of the molecular-level
structure and energetics of the material.
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Applicable
Classes:
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Heat Transfer,
Fundamentals of Transport Phenomena, Molecular Modeling
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Author:
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Randall
Snurr
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Affiliation:
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Northwestern
University
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Date
Posted:
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July 2,
2001
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Joule-Thomson Effect
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Purpose:
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In this
module, you will investigate the Joule-Thomson effect, using classical
thermodynamics along with molecular simulation. You will explore how the
relationship between temperature, pressure and intermolecular forces leads
to a given temperaure change upon expansion. At the completion of the
module, you should be able to answer Joule and Thomson's question!
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Applicable
Classes:
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Thermodynamics
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Author:
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Edward Maginn
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Affiliation:
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Notre Dame University
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Date
Posted:
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Aug 23, 2001
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