Applying Molecular Simulation and Computational Chemistry
AIChE 2001 - Reno Hilton - November 4-9

Day Room Title Chairs Sponsors
         
   
Sunday, November 4
   
Sun,
Nov
4,
9 AM-
Noon
  Tutorial: Molecularly Based Modeling for Materials and Chemicals Applications; Part I: Molecular Simulations Peter J. Ludovice, Associate Professor of Chemical Engineering, Georgia Institute of Technology, Atlanta;
Nick Reynolds, Director of Materials Science Scientific Support, Accelrys
21,
Accelrys,
Gaussian,
CAChe/Fujitsu
Sun,
Nov
4,
1:30-
4:30
PM
  Tutorial: Molecularly Based Modeling for Materials and Chemicals Applications; Part II: Quantum Chemistry Michael J. Frisch, President, Gaussian Inc.;
David A. Gallagher, Vice President and Director of Sales and Marketing, CAChe Group, Fujitsu;
Phillip R. Westmoreland, Professor of Chemical Engineering, University of Massachusetts, Amherst
21,
Accelrys,
Gaussian,
CAChe/Fujitsu
         
   
Monday morning, November 5
   
Mon
AM,
Nov
5
Reno
Ballroom
[1] Plenary Session: Topical Conference on Applying Molecular Simulations and Computational Chemistry
Invited presentations will feature industrial experience and scientific advances in molecularly based modeling.
8:30 AM  (1a) Materials Modeling and Simulation as a Technology Platform for Advanced Materials Development
9:00 AM  (1b) Perspectives on Computational Drug Design
9:30 AM  (1c) Uses of Computational Chemistry at Rohm and Haas: Some Case Studies
10:00 AM  (1d) Molecular Modeling of Transport Properties of Polyimide Polymer Membranes
10:30 AM  (1e) Predicting Thermophysical Properties of Fluids by Molecular Simulation
11:00 AM  (1f) Panel Discussion: Experience, Advances, and Opportunities in Applying Molecularly Based Modeling
Grant S. Heffelfinger, Sandia National Laboratories, gsheffe@sandia.gov
Phillip R. Westmoreland, University of Massachusetts, westm@ecs.umass.edu
21
         
   
Monday afternoon, November 5
   
Mon
PM,
Nov
5
Crystal
1
[2] Plenary Session: Teaching Molecular and Materials Modeling
This session emphasizes methods of using and teaching about molecularly based modeling in the undergraduate and graduate curriculum. It will begin after the Area 1a Lecture by Thanos Panagiotopoulos (described below).
3:00 PM  (2a) Etomica: A Java-Based Authoring Code for Teaching about and Developing Molecular Simulations
3:30 PM  (2b) Teaching about Kinetics and Molecular Simulations Using Web-Based Reactive Molecular Dynamics
3:45 PM  (2c) A Molecular Simulation Module for Teaching Vapor-Liquid Equilibrium
4:00 PM  (2d)Incorporating Molecular Modeling into the Chemical Engineering Curriculum
4:15 PM  (2e) Teaching Graduate Molecular Modeling and Theory: Past Experiences and New Directions
4:30 PM  (2f) Computational Chemistry and Molecular Simulation for Engineers: A Cooperative Effort across College Boundaries
4:45 PM  (2g) Teaching Quantum Chemical Simulations in Chemical Engineering
Carol K. Hall, NC State University, hall@turbo.che.ncsu.edu
H. Scott Fogler, University of Michigan, sfogler@umich.edu
21
Mon
PM,
Nov
5
Reno
Ballroom
[113] Thermodynamic Properties and Phase Behavior I: Area 1a Plenary Lecture Session
This year's plenary lecturer is Prof. Athanassios Z. Panagiotopoulos of Princeton University, speaking at 2 pm on "Simulations of Self-Assembly in Solution." The Topical Conference's plenary session on Teaching Molecular and Materials Modeling will begin at 3 pm following this lecture.
2:00 PM  Introduction
2:05 PM  (113a) Area 1a Lecture: Simulations of Self-Assembly in Solution
3:00 PM  (113b) Simulation of Order-disorder Phase Transitions and Quantification of order
3:20 PM  (113c) Computation and Analysis of Intermolecular Potentials for Clathrate Hydrates via Exact Integration of Langmuir Data
3:40 PM  (113d) Simulating the Henry's Law Constant for Aqueous Hydrocarbons in the Near Critical Region
4:00 PM  (113e) Infinite Dilution Phase Equilibria of Selected C5-Hydrocarbons in Water and Acetonitrile Using a Novel Experimental Method
4:20 PM  (113f) High Pressure PVT Behavior of Long-chain n-alkanes: Experimental Results and Modeling with the SAFT and PC-SAFT Equation
4:40 PM  (113g) A New Integral Equation for the Structure of Hard Sphere Fluids Based on Scaled Particle Theory
Hank D. Cochran, Oak Ridge National Laboratory, hdc@ornl.gov
Bernhardt Trout, Massachusetts Institute of Technology, trout@mit.edu
1a, 21
Mon
PM,
Nov 5
Crystal
2
[344] Multi-Scale Approaches to Reaction Engineering
This session is composed of invited talks emphasizing scale-spanning methods and applications.
2:00 PM  (344a) Chemical Kinetics, Deformable Manifolds, and Recognition in Cellular and Synthetic Systems
2:30 PM  (344b) 'Coarse' Stability/Bifurcation Analysis of Monte-Carlo Reaction Simulations
3:00 PM  (344c) Multiscale Reaction Engineering: An Industrial Perspective
3:30 PM  (344d) Incorporating Microscopic Information in Macroscopic Fire Simulations
4:00 PM  (344e) A Multiscale Approach to Deactivation of Immobilized Glucose Isomerase in Packed-Bed Reactors
4:30 PM  (344f) Mesodyne - A Bridge between Micro and Macroscale Engineering
Matt Neurock, University of Virginia, mn4n@virginia.edu
Dionisios Vlachos, University of Delaware, vlachos@che.udel.edu
20, 21
         
   
Tuesday morning, November 6
   
Tue
AM,
Nov
6
Crystal
1
[3] General Papers: Applying Molecular Simulations and Computational Chemistry
8:30 AM  (3a) Using Molecular Modeling to Optimize Polyester Barrier Properties at the KoSa Corporation
8:50 AM  (3c) A New Approach to Linear-scaling Density Functional Calculations for Materials Science
9:10 AM  (3c) A Priori Phase Equilibrium Prediction from a Segment Activity Coefficient Model
9:30 AM  (3d) COSMO-RS: Bridging Quantum Chemistry with Chemical Engineering Fluid Phase Thermodynamics
9:50 AM  (3e) Reduction of Cyclic Carbonates at Carbon Anodes: A Density Functional Theory Study
10:10 AM  (3f) An Ab-Initio Analysis of Methanol Chemistry on Pt Surfaces
10:30 AM  (3g) Effect of the Environment on the Stoichiometry and Structure of Oxide Surfaces
10:50 AM  (3h) Gas-Phase Intermediate and Surface-Adsorbate Structure Speculation by Frequency Analysis with Electronic Structure Method
Grant S. Heffelfinger, Sandia National Laboratories, gsheffe@sandia.gov
Phillip R. Westmoreland, University of Massachusetts, westm@ecs.umass.edu
21
Tue
AM,
Nov
6
Crystal
5
[117] Molecular Simulation - Recent Advances I
This series of sessions, continuing over the last six years, introduces advances in techniques and applications of molecular simulations.
8:30 AM  (117a) Mechanisms and Rates of Diffusion in Ice and CO2-clathrate Hydrates via Molecular Simulations
8:47 AM  (117b) Novel Monte Carlo Methods: Solid-fluid and Liquid-Liquid Phase Equilibria and Nucleation Barriers
9:04 AM  (117c) A New Approach for Studying Nucleation Phenomenon using Computer Simulations
9:21 AM  (117d) Mechanical Properties of Semi-Crystalline Polymer Interphases
9:38 AM  (117e) Modeling Porous Carbons by Simultaneous Reverse Monte Carlo and Energy Minimization
9:55 AM  (117f) New Monte Carlo Methods for Simulations of the Structure and Properties of Complex Fluids
10:12 AM  (117g) Monte-Carlo Simulations of Antimicrobial Peptides
10:29 AM  (117h) Heuristics for Application of Free-energy Perturbation Calculations in Molecular Simulation
10:46 AM  (117i) Finely Discretized Lattice Models for Polar Fluids
11:03 AM  (117j) Cell Multipole Method: Implementation and Applications
Fernando Escobedo, Cornell University, escobedo@cheme.cornell.edu
Christian Lastoskie, Michigan State University, cml@egr.msu.edu
1a, 21
Tue
AM,
Nov 6
Crystal
2
[347] Perspectives on Fundamental Modeling of Catalysis
This session is composed of invited talks emphasizing modeling of catalysis, especially using molecularly based methods.
8:30 AM  Introduction
8:35 AM  (347a) Reactions on Transition Metals: Transition States and Photoinduced Processes
9:10 AM  (347b) Methane Activation on Transition Metal Surfaces
9:45 AM  (347c) Computational Chemistry in Zeolite Catalysis
10:20 AM  (347d) Perspectives on Modeling Heterogeneous Catalysis from First Principles
10:55 AM  (347e) Perspectives on Modeling Catalytic Chemistry on Metal Oxides
Manos Mavrikakis, University of Wisconsin - Madison, manos@engr.wisc.edu
Matt Neurock, University of Virginia, mn4n@virginia.edu
20, 21
   
Tuesday afternoon, November 6
   
Tue
PM,
Nov
6
Crystal
1
[57] Computational Chemistry and Drug Development
Papers are presented that use molecularly based modeling to address aspects of drug, design, development, and production.
2:00 PM  Introduction
2:05 PM  (57a) Design Rules for Synthetic Lung Surfactant Analogues using Computer Simulations and Structural Bioinformatics
2:30 PM  (57c) MUSIC Simulations on HIV-1 Integrase to Develop a Dynamic Pharmacophore Model for Anti-AIDS Drug Design
2:55 PM  (57d) Using Configurational-Bias Monte Carlo to Perform Flexible Drug Docking
3:20 PM  (57f) Calculation of drug solubility and partition behavior with COSMO-RS
3:45 PM  (57g) A Global Optimization Algorithm for Crystal Structure Determination in X-Ray Crystallography
4:20 PM  Using Extended Valence Sequences in Quantitative Structure Activity Relationships (Jean-Loup Faulon, Carla Churchwell, Sandia National Laboratories; Donald Visco, Tennessee Technological University
Laura J. Frink, Sandia National Laboratories, ljfrink@sandia.gov
John Nicholas, Genentech, Inc., jbn@gene.com
T3, T4, 21
Tue
PM,
Nov 6
Crystal
2
[123] Applying Computational Chemistry and Molecular Simulations to Heterogeneous Catalysis
In this session, the use of computational chemistry and molecular simulations to investigate heterogeneous catalysis phenomena will be explored. The vast number of experimental studies of heterogeneous systems have given us great insight into how reactions happen at interfaces. However, computational chemistry methods have now become robust enough to handle more systems of interest. This allows us to use new tools to examine many poorly understood heterogeneous reactions.
Papers are included that use various computational chemistry or molecular simulation methodologies to investigate reactions in heterogeneous catalysis. Of particular interest are topics exploring the current limitations and successes of the computer-based studies compared to experimental data.
2:00 PM  (123a) First-Principles-Based Monte Carlo Simulation of Nitric Oxide Decomposition Over Pt(100) and Rh(100) Surfaces
2:20 PM  (123b) A Quantum Chemical Investigation of Cobalt Siting in Ferrierite
2:40 PM  (123c) A Comparison of DFT Calculations and Experiments for the Binding of CO, H2, C2H4, O2 on Transition Metals.
3:00 PM  (123d) Intermediates in Epoxide Formation on Silver Surfaces: DFT and Experimental Studies
3:20 PM  (123e) Quantum Chemical Analysis of Methanol Oxidation to Fromaldehyde on Supported Vanadia Catalysts
3:40 PM  (123f) DFT Studies of Acetone and Propanal Hydrogenation on Pt(111)
4:00 PM  (123g) Enhancement of the Ammonia Synthesis Reaction in Heterogeneous Microporous Carbon Models Predicted from Monte Carlo Simulation
4:20 PM  (123h) Oxidation of Sulfur Compounds on Platinum Surfaces for Automotive Applications
4:40 PM  (123i) Oxygen Activation on Metallic Gold: A First-Principles Study
Manos Mavrikakis, University of Wisconsin - Madison, manos@engr.wisc.edu
Paul Blowers, University of Arizona, blowers@engr.arizona.edu
1a, 20, 21
Tue
PM,
Nov
6
Crystal
5
[121] Molecular Simulation - Recent Advances II
This series of sessions, continuing over the last six years, introduces advances in techniques and applications of molecular simulations.
2:00 PM  (121a) Peptide Folding: Exploration of Secondary Structure Formation by Multiple All-Atom MD Simulations in Sequence Space
2:18 PM  (121b) Ab Initio Helix Prediction in Polypeptides
2:36 PM  (121c) Novel Methods for Studying the Evolution of Silicon from a Quenched State using accelerated molecular dynamics schemes
2:54 PM  (121d) Modeling Crystallization by Isothermal Compression using Isobaric Molecular Dynamics of Hard Sphere Systems
3:12 PM  (121e) Numerical Bifurcation Analysis Based on Atomistic Simulation: Stress-Induced Structural Transitions in Crystals
3:30 PM  (121f) Phase Equilibria using Temperature Quench Molecular Dynamics
3:48 PM  (121g) Long-Range Interactions in a Slab-like Geometry
4:06 PM  (121h) Monte Carlo Calculation of Colloidal Chemical Potentials
4:24 PM  (121i) Pressure-Enthalpy Driven Molecular Dynamics for Thermodynamic Property Calculation
4:42 PM  (121j) Nanocapillarity: Bridging Scales from Molecular Simulations to Density Functional Theory to Classical Thermodynamics
Fernando Escobedo, Cornell University, escobedo@cheme.cornell.edu
Christian Lastoskie, Michigan State University, cml@egr.msu.edu
1a, 21
         
   
Wednesday morning, November 7
   
Wed
AM,
Nov
7
Crystal
2
[125] Intermolecular Potentials for Industrial Applications
Parameterized force fields are keys to speed and accuracy of molecular simulations. This session describes development and use of these potential-energy functions.
8:30 AM  (125a) Quantitative Lattice Simulations of Macromolecules
8:45 AM  (125b) Multi-Step Potential Modeling of n-Alkanes by DMD/TPT and PRISM Theory
9:00 AM  (125c) Lennard-Jones-Based Family of Potential Models for Accurate Simulations of Thermodynamic Properties of Pure Fluids and Mixtures
9:15 AM  (125d) Some Excess Thermodynamic Properties of Aromatic Hydrocarbon-Containing Mixtures Calculated Using The COMPASS Force Field
9:30 AM  (125e) Extensions of the TraPPE Force Field to Polar Molecules
9:45 AM  (125f) Development of a force field for molecular simulation of the phase equilibria of perfluoroethers
10:00 AM  Break
10:15 AM  (125g) Investigation of Three-body Forces Applied to Hydrogen Fluoride
10:30 AM  (125h) Phase Behavior Predictions of the Acetonitrile-Methanol System
10:45 AM  (125i) Transferrable Intermolecular Potential Models from Ab Initio Calculations
11:00 AM  (125j) Phase Equilibria Prediction by Molecular Simulations: Comparison of Different Methods
11:15 AM  (125k) Thermodynamic Properties of Moist Gases from ab initio Potentials
Rajesh Khare, Molecular Simulations Inc., rxk@msi.com
J. Ilja Siepmann, University of Minnesota, siepmann@chem.umn.edu
1a, 21
Wed
AM,
Nov 7
Crystal
1
[127] Theory and Simulation at the Mesoscale
The goal of the session is to showcase the development and application of new methods for bridging lengthscales, particularly between quantum, classical atomistic and continuum models. Examples of methods that would be ideal for this session would be methods to accelerate Molecular Dynamics, methods that couple quantum and classical descriptions of matter, and methods that address length-scale issues via coarse-graining or coupling to continuum models. While such approaches are particularly useful for thermodynamics and dynamics of complex and/or heterogeneous fluid systems, applications to other areas are also included.
8:30 AM  (127a) Inverse mapping of two-dimensional images into three-dimensional block copolymer morphologies: MesoDyn simulations
8:48 AM  (127b) Interfacial Influence on Evaporation-Driven Amphiphile Assembly
9:06 AM  (127c) Field-Theoretic Polymer Simulations
9:24 AM  (127d) A Wavelet Transform Method for Multiresolution Materials Modeling
9:42 AM  (127e) Integration of Linked Mesoscale-continuum Codes: The Role Of Additives During Copper Electrodeposition
10:00 AM  (127f) Mesoscopic Models and Simulations for Transport in Nanoporous Films
10:18 AM  (127g) Hydrophobic Hydration on Microscopic and Mesoscopic Length Scales
10:36 AM  (127h) Structure and Dynamics of Polycarbonate Melts via Novel Coarse-grained Molecular Dynamics Simulation
10:54 AM  (127i) Scaling and Domain Growth in Ternary Systems Containing Amphiphiles
11:12 AM  (127j) Mesoscale Simulation of Spinodal Nucleation
Aidan Thompson, Sandia National Laboratories, athomps@sandia.gov
David Sholl, Carnegie Mellon University, sholl@andrew.cmu.edu
1a, 21
Wed
AM,
Nov 7
Crystal
5
[353] Understanding Reactivity I
Papers in this session include experimental, theoretical or computational studies which pursue the understanding of chemical reactivity. Areas of application include but are not limited to homogeneous and heterogeneous catalysis, semiconductor processes, combustion reactions, and reactions in aqueous and other solvent media, including biological processes. The emphasis is on gaining insight into reactivity via determining and understanding trends, describing quantitatively how chemical reactions proceed under varying conditions, and/or developing new methods for evaluating reactivity. An objective of the session is to stimulate interchange between theorists and experimentalists, and thus, links between theory and experiment are especially encouraged.
8:30 AM  Introduction
8:32 AM  (353a) Using Semiclassical Theory to Include Quantum Effects into Classical Molecular Dynamics Simulations
9:06 AM  (353b) 'Ab Initio' Monte Carlo Simulation of Catalytic Reactions
9:24 AM  (353c) Engineering Models for Rate Coefficients in Gas Phase Reactions
9:42 AM  (353d) Reaction Mechanisms and Rate Parameters for the Al/H/Cl/C/O System in the Gas Phase
10:00 AM  (353e) Chemical Reaction Kinetics in Non-Ideal Environments Predicted from Reactive Monte Carlo Simulations: The Reaction 2HI->H2+I2
10:18 AM  (353f) Density Functional Investigation of Hydroxylamine Decomposition
10:36 AM  (353g) Heterogeneous Activation of Chlorine on Ice under Stratospheric Conditions
10:54 AM  (353h) Computational Study of the Liquid Phase Acid-Catalyzed Carbonylation of MTBE
11:12 AM  (353i) Transition States in Concerted Surface Acid-Catalyzed SN2 Reactions for Coupling of Alcohols
Bernhardt Trout, MIT, trout@mit.edu
Richard I. Masel, University of Illinois - Urbana, masel@scs.uiuc.edu
20, 21
         
   
Wednesday afternoon and evening, November 7
   
Wed
PM,
Nov
7
Carson
1
[89] Modeling and Simulation of Nanoscale Systems I
This session includes papers on theoretical and computational aspects of modeling nanoscale systems. "Nanoscale systems" are broadly construed, and may include, e.g., nano-devices or devices designed at the nanoscale; nanostructured materials, including nanocomposites or materials designed or engineered at the nanoscale; individual or assemblies of nanoparticles and other nano-objects; and systems where the presence of nanoscopic dimensions produces novel phenomena, such as nanoscale gaps and pores. Aspects of interest may include but are not limited to synthesis, self- or guided assembly, transport, phase behavior, characterization, processing and property prediction. Papers focusing on either the development or application of theoretical or computational methods, and in particular on bridging relevant length and time scales, are included.
2:00 PM  Introduction
2:05 PM  (89a) Molecular Modeling of Nanoscale Systems
2:30 PM  (89b) Nanomechanical Motion Generated by Biomolecular Binding
2:45 PM  (89c) Parallel Molecular Dynamics Simulations of Dislocation Dynamics during Nanoindentation of Gold
3:00 PM  (89d) Simulation of a Nanofilled Polymer Melt
3:15 PM  (89e) Selective Partitioning of Hydrophobic Solutes into Carbon Nanotubes
3:30 PM  (89f) Nanometer Scale Manipulation of Surface Reaction Kinetics by STM Electric Fields: A Density Functional Theory Study
3:45 PM  (89g) Liquid-Liquid Equilibria and Capillary Condensation in Confined Nanopores
4:00 PM  (89h) Molecular Dynamics Modeling of the Molecular Structure and Transport Through a Nanopore
4:15 PM  (89i) Simulation of the Dynamic Behavior of Nanoparticle Chain Aggregates
4:30 PM  (89j) Lattice Density Functional Theory for Self-Assembly in Fluids
4:45 PM  (89k) Mechanical Behavior of Polymeric Nanoscopic Structures
Sharon C. Glotzer, University of Michigan, sglotzer@umich.edu
Wolfgang Windl, Motorola, Inc., Wolfgang.Windl@Motorola.com
T7, 21
Wed
PM,
Nov 7
Tahoe
Room
[131] Reference-Quality Data and Models for Thermophysical Properties: Session Honoring the Centennial of NBS/NIST
This session commemorates the Centennial of the National Institute of Standards and Technology (NIST), which was established as the National Bureau of Standards in 1901. Through the years, NBS/NIST has been known for precise measurements, careful evaluation of data, and dissemination of standards for scientific research and industrial practice. Papers in this session will focus on reference-quality data for thermophysical properties. Both experimental contributions and contributions describing correlations and modeling are included, particularly those describing data, models and/or databases that are sufficiently comprehensive and accurate to provide foundational reference data for the work of science and industry.
2:00 PM  (131a) Introductory Remarks: A Century of Fluid Property Research at NBS/NIST
2:20 PM  (131b) Invited Lecture: Multiparameter Equations of State
3:00 PM  (131c) TRC: from NBS to NIST - 60 Years in Retrospective and Many More in Perspective
3:20 PM  (131d) Natural Gas Property Standards
3:40 PM  (131e) Calculation of Accurate Enthalpies of Formation using Gaussian-3 Theory
4:00 PM  (131f) Thermophysical Properties of Helium from Theory: New Standards?
4:20 PM  (131g) Absolute Measurements of the Viscosity of Nitrogen, Methane, Helium, Neon, Argon and Krypton
4:40 PM  (131h) NMR Relaxation Time and Diffusion Measurements of Pure Ethane and Propane
Allan H. Harvey, National Institute of Standards & Technology, aharvey@boulder.nist.gov
Paul Mathias, Aspentech, paul.mathias@aspentech.com
1a, 21
Wed
PM,
Nov 7
Crystal
5
[355] Understanding Reactivity II
Papers in this session include experimental, theoretical or computational studies which pursue the understanding of chemical reactivity. Areas of application include but are not limited to homogeneous and heterogeneous catalysis, semiconductor processes, combustion reactions, and reactions in aqueous and other solvent media, including biological processes. The emphasis is on gaining insight into reactivity via determining and understanding trends, describing quantitatively how chemical reactions proceed under varying conditions, and/or developing new methods for evaluating reactivity. An objective of the session is to stimulate interchange between theorists and experimentalists, and thus, links between theory and experiment are especially encouraged.
2:00 PM  (355a) A General Proposition for the Influence of Catalysts on the Barriers to Elementary Surface Reactions
2:20 PM  (355b) The Surface Chemistry of NO on Pt Surfaces: A first principles analysis
2:40 PM  (355c) Ab Initio Study of Hydroxyl Exchange on (0001) alpha-Al2O3 Surface
3:00 PM  (355d) A DFT Investigation of CO Chemisorption on Pt100: Characterizing Reactivity
3:20 PM  (355e) Catalytic Oxidation of Carbon Monoxide on Pt(411): In-situ Studies of Defect Reactivity
3:40 PM  (355f) Criteria for Reactivity from Experimental Analysis of Catalysis and Characterization of an Orbital Field
4:00 PM  (355g) Hydrogen On and In Ni(111): Potential Energy Surfaces and Surface Reactivity
4:20 PM  (355h) Metal-Support Interaction and Nucleation in Transition Metal Catalysts
4:40 PM  (355i) Density of Unoccupied Electronic States in the Control of Rate in Oxidation Catalysis
Bernhardt Trout, MIT, trout@mit.edu
Richard I. Masel, University of Illinois - Urbana, masel@scs.uiuc.edu
20, 21
Wed
Nov 7,
4:30
PM
Hilton
Pavilion
[4] Poster Session: Applying Molecular Simulations and Computational Chemistry
This session features poster- and demonstration-based oral presentations. A wide range of topics will be represented, reflecting the range of the Topical Conference.
4a Virtual Kinetic Laboratory
4b Modeling of Molecular Interactions and Inclusion Phenomena of Amino Acids and Nucleotides in a Synthetic Dendrimer
4c DFT Prediction of Isosteric Heats of Adsorption of N2, O2 and Ar on Zeolitic Adsorbents: An Embedded Cluster Approach
4d AASBU Approach for Predicting Inorganic Structures Built Exclusively of Sodalite Cages
4e Self-Assembly of Nanoscale Colloidal Particles: Monte Carlo Approach
4f The Hierarchical Collective Motions Method: Simulations of Large Molecules
4g Kinetic Monte Carlo Simulation of Homogeneous Nucleation of Hydrogenated Silicon Particles during Silane Decomposition
4h Molecular Simulation of Receptor/Substrate Interaction: The Case of Alpha-Chymotrypsin and Beta-Carboethoxy-Gamma-Lactames
4i A Flavor-Receptor Ellipsoid Model for Predicting Flavor Sensory Thresholds
4j Density Functional Theory Calculations of the Energy and Free Energy of Anisotropic Multicomponent Mixtures
4k Simulating Multiphase Systems under Flow
4l Identification of Separation Mechanism in Silica Membrane using Molecular Dynamics Simulation
4m Configurational Bias Monte Carlo Simulation of Arbitrarily Large Polymer Chains in Solution
4n A Generating equation for Mixing Rules for the Interatomic Potential Parameters and a New Mixing Rule for the Noble Gases
4o Viabilty of Atomistic Potentials for Thermodynamic Properties of Carbon Dioxide at Low Temperatures
4p Monte Carlo Simulation of Crystallization from a Vapor Phase
4q Free Expansion of Semiflexible Polymer Rods
4r Prediction Of Accurate Reaction Barriers And Enthalpies Of Reaction By A New Hybrid DFT Method
4s Molecular Simulation of a Proton-Exchange Membrane
4t Combined Using of MD Simulations and Microhydrodynamic Equations for Molecular Modelling of Fluid Flows
4u Simulations of CO oxidation on Pt(111) electrode: Effect of anions and CO surface mobility.
4v Surface Effects on Beta-Scission Reaction Rates
4w Tunneling Effects in Bimolecular Chemical Reactions
4x Functional Group Properties Using Atoms in Molecules Theory
4y Surface Reaction Analysis with Dynamic Reaction Coordinate Method
4z Structure Solution from Powder Diffraction Data
4aa Predicting properties of nanostructured materials using MesoDyn and Palmyra
Joseph T. Golab, BP Naperville, GolabJT@BP.com
Randall Q. Snurr, Northwestern University, snurr@northwestern.edu
21
         
   
Thursday morning, November 8
   
Thu
AM,
Nov
8
Nevada
9
[92] Modeling and Simulation of Nanoscale Systems II
This session includes papers on theoretical and computational aspects of modeling nanoscale systems. "Nanoscale systems" are broadly construed, and may include, e.g., nano-devices or devices designed at the nanoscale; nanostructured materials, including nanocomposites or materials designed or engineered at the nanoscale; individual or assemblies of nanoparticles and other nano-objects; and systems where the presence of nanoscopic dimensions produces novel phenomena, such as nanoscale gaps and pores. Aspects of interest may include but are not limited to synthesis, self- or guided assembly, transport, phase behavior, characterization, processing and property prediction. Papers focusing on either the development or application of theoretical or computational methods, and in particular on bridging relevant length and time scales, are included.
8:30 AM  (92a) Phase Behavior of Mixed Self-Assembled Monolayers on Au(111): A Configurational-bias Monte Carlo Simulation Study
8:45 AM  (92b) Molecular Simulation of Electroosmotic Flow in Small Channels
9:00 AM  (92c) Modeling the Structural Recovery Response of Glasses in Nanoscopic Pore: Is it an Isochoric Phenomenon?
9:15 AM  (92d) Vapor Liquid Equilibrium and Nucleation in Nanopores: Molecular Simulation Study
9:30 AM  (92e) Elucidation on the Mechanism of Single-wall Carbon Nanotube Growth
9:45 AM  (92f) Mechanical Properties of High-porosity Sol-gel Derived Materials
10:00 AM  (92g) Long-ranged Order of Magnetic Nanoclusters in Metals and Semiconductors
10:15 AM  (92h) Effect of Molecular Architecture on the Behavior of Nanoscopically Confined Fluids
10:30 AM  (92i) Nanoscale Pore Growth And Ordering In Anodic Alumina
10:45 AM  (92j) Kinetic Monte Carlo Simulation of Diffusion in the Critical Region
11:00 AM  (92k) Stability Analysis & Computer Simulation of Nano-scale Lubricant Films with Chain-end Functional Groups
11:15 AM  (92l) Modeling the Thermoelectric Transport Properties of Nanostructured Thin Films
Sharon C. Glotzer, University of Michigan, sglotzer@umich.edu
Wolfgang Windl, Motorola, Inc., Wolfgang.Windl@Motorola.com
T7, 21
Thu
AM,
Nov 8
Crystal
1
[134] Combinatorial Studies of Complex Systems
This session highlights work in the emerging field of combinatorial and high-throughput synthesis and characterization. The session places an emphasis on the unique contributions of combinatorial methods to the study of systems controlled by complex interactions of parameters, e.g., reactions, phase transitions, multiple compositions, and processing conditions. All aspects of the combinatorial process will be covered, including computational experimental design and analysis, informatics, library synthesis and preparation, and novel adaptations of high-throughput screening and measurement.
8:30 AM  Introduction
8:31 AM  (134a) Advances in the Combinatorial Design of Polymers: A New Approach to the Development of Biomaterials
9:06 AM  (134b) Templates for Combinatorial Assay of Biocompatibility
9:24 AM  (134c) Optimal Coverage Experiment Designs for Complex Systems
9:42 AM  (134d) Modeling of Directed Evolution Protocols Involving Nonhomologous Recombination
10:00 AM  (134e) Virtual High-Throughput Screening of Molecular Properties using Transferable Atom Equivalent (TAE) Techniques
10:18 AM  (134f) Combinatorial Approaches for Fundamental Polymer Science Issues in Photolithography
10:36 AM  (134g) A Novel Modeling Framework for Heterogeneous Catalyst Design
10:54 AM  (134h) Combinatorial Rheology: Microrheology as a Tool for Rapid Materials Screening
11:12 AM  (134i) Combinatorial Screening for Agrochemical Nanodispersants
Carson Meredith, Georgia Institute of Technology, carson.meredith@che.gatech.edu
Michael Deem, University of California - Los Angeles, mwdeem@ucla.edu
1a, 21
Thu
AM,
Nov 8
Crystal
3
[136] Molecular Simulation and Theory of Adsorption Phenomena I
Papers are included in which molecular theory or simulation is used to investigate interfacial adsorption phenomena. Examples of methods include density functional theory, molecular dynamics, and Monte Carlo simulation and examples of systems include simple, chain, or biological molecules adsorbed in a porous medium or at a flat interface.
8:30 AM  (136a) A Modified Version of the Horvath-Kawazoe Method to Account for Wetting Prior to Pore Condensation
8:45 AM  (136b) Inside the Hysteresis Loop: Multiplicity of Internal States and Superspinodals in Confined Fluids
9:00 AM  (136c) Network Connectivity and Its Effects on Capillary Phenomena