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9783540403678

Interface and Transport Dynamics

by ; ; ;
  • ISBN13:

    9783540403678

  • ISBN10:

    3540403671

  • Format: Hardcover
  • Copyright: 2003-09-01
  • Publisher: Springer Verlag
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Summary

The book contains an overview of the recent progress of research in computational physics and materials science. Particular topics are modelling of traffic flow and complex multi-scale solidification phenomena. The sections introduce novel research results of experts from a considerable diversity of disciplines such as physics, mathematical and computational modelling, nonlinear dynamics, materials sciences, statistical mechanics and foundry technique. The book intends to create a comprehensive and coherent image of the current research status and illustrates new simulation results of transport and interface dynamics by high resolution graphics. Various possible perspectives are formulated for future activities. Special emphasis is laid on exchanging experiences concerning numerical tools and on the bridging of the scales as is necessary in a variety of scientific and engineering applications. An interesting possibility along this line was the coupling of different computational approaches leading to hybrid simulations.

Table of Contents

I INTERFACE DYNAMICS: Phenomenology and Modelling
Melting Kinetics of Prolate Spheroidal Crystals
3(17)
M.E. Glicksman
A. Lupulescu
M.B. Koss
Introduction
3(1)
Dendritic Growth
3(1)
Isothermal Dendritic Growth Experiment (IDGE)
3(1)
Mushy Zones
4(1)
Video Melting Data
4(1)
Data Analysis
5(1)
Image Processing
5(1)
Quasi-static Theory
6(7)
Background
6(1)
Potential Theoretic Formulation
6(3)
Enthalpy Flux
9(2)
Enthalpy Current
11(1)
Kinematic Formulation
11(2)
Results
13(4)
Experimental Melting Rates
13(2)
Thermal Data
15(2)
Conclusions
17(1)
Acknowledgements
17(3)
Deterministic Behaviour in Sidebranching Development
20(6)
Ricard Gonzalez-Cinca
Yves Couder
Introduction
20(1)
Experimental Results
20(2)
Model
22(1)
Numerical Procedure and Results
23(3)
Growth Dynamics during Solidification of Undercooled Melts
26(21)
Dieter Herlach
Introduction
26(1)
Experimental
27(2)
Description of Dendrite Growth in Undercooled Melts
29(3)
Experimental Results on Dendrite Growth in Undercooled Melts
32(12)
Pure Metals
32(2)
Solid Solutions
34(1)
Dilute Multiphase Alloys
35(2)
Intermetallics with Superlattice Structures
37(2)
Complex Structures of Polytetrahedral Phases
39(2)
Faceted and Non-Faceted Growth of Semiconductors
41(3)
Summary and Conclusions
44(3)
Thermodynamics of Diffuse Interfaces
47(18)
G.J.Schmitz
Introduction
47(2)
General Considerations
49(1)
Thermodynamic Approaches to Interfacial Energy
50(1)
Crystal Growth Models
50(5)
Approaches from Theories of Phase Transitions
55(2)
Statistical Approach
57(4)
Conclusions
61(2)
Acknowledgments
63(2)
Computer Investigation of the Influence of the Internal Structure Topology on the Percolation Process in Two- and Three-Dimensional Inhomogeneous Systems
65(10)
Aliaksei Konash
Sergey Bagnich
Introduction
65(1)
Computational Technique
66(1)
Results and Discussion
67(6)
Conclusion
73(2)
Electron Transport of Nanoperm Alloys
75(7)
K. Pekala
Introduction
75(1)
Experiments
75(1)
Results and Discussion
76(3)
Electrical Resistivity
76(1)
Crystalline Fraction
77(2)
Thermoelectric Power
79(1)
Conclusion
79(3)
Self-Organized Formation of Fractal and Regular Pores in Semiconductors
82(6)
Jens Christian Claussen
Jurgen Carstensen
Marc Christophersen
Sergiu Langa
Helmut Foll
Electrochemical Etching: Basic Experimental Setup
82(1)
The Current-Burst Model
83(1)
Consequences on Pore Geometries
84(3)
Conclusions
87(1)
Evolution and Shapes of Dunes
88(15)
Hans J. Herrmann
Gerd Sauermann
Introduction
88(1)
Experimental Measurements of a Barchan Dune
89(5)
Dune Morphology
89(3)
Wind Velocity and Sand Flux
92(2)
The Model
94(6)
The Wind Shear Stress
95(2)
The Sand Flux
97(1)
The Surface Evolution
98(2)
The Shape of the Dune and Outlook
100(3)
Morphogenesis of Growing Amorphous Films
103(18)
Stefan J. Linz
Martin Raible
Peter Hanggi
Introduction
103(1)
Basic Concepts
104(5)
Deposition Equation for Thin Film Growth
109(8)
Conclusions and Perspectives
117(4)
II INTERFACE DYNAMICS: Modelling and Simulation
Density Effects and Fluid Flow in Phase-field Models
121(15)
Massimo Conti
Introduction
121(2)
Phase-field Model for a Pure Material
123(4)
The Entropy Balance
123(2)
The Thermodynamic Potential
125(1)
Nondimensional Equations in one Dimension
126(1)
Phase-field Model for a Binary Alloy
127(3)
Numerical Solutions
130(4)
Pure Substance
130(3)
Binary Alloy
133(1)
Conclusions
134(2)
A Lattice Boltzmann Method for the Mesoscopic Calculation of Anisotropic Crystal Growth
136(6)
Wolfram Miller
Igor Rasin
Introduction
136(1)
Lattice Phase-field Model
136(2)
Results
138(2)
Conclusions
140(2)
A Phase-field Model for the Solidification Process in Multicomponent Alloys
142(8)
H. Garcke
B. Nestler
B. Stinner
Solidification Effects and Length Scales
142(1)
Description of the Model
143(2)
The Related Sharp Interface Model
145(2)
Examples
147(1)
Further Generalizations
148(2)
Planar Solidification from Undercooled Melt: An Approximation of a Dilute Binary Alloy for a Phase-field Model
150(10)
Denis Danilov
Introduction
150(1)
The Model
151(1)
An Approximation of a Small Impurity Concentration
152(2)
Stationary Interface
154(1)
Large-Velocity Asymptotics
154(1)
Numerical Calculations
155(3)
Conclusions
158(2)
Initial Transients in the Symmetric Model for Directional Solidification
160(6)
Raul Benitez
Laureano Ramirez-Piscina
Introduction
160(1)
The Sharp Interface Model
160(2)
The Phase-field Model
162(1)
Results and Discussion
163(1)
Concluding Remarks
164(2)
Dynamics of a Faceted Nematic-Smectic B Front in Thin-Sample Directional Solidification
166(6)
Tamas Borzsonyi
Silvere Akamatsu
Gabriel Faivre
Introduction
166(1)
Results
167(1)
Experiments
167(1)
Linear Stability Analysis
168(1)
Phase-field Simulations
169(3)
Last Stage Solidification of Alloys: A Theoretical Study of Dendrite Arm and Grain Coalescence
172(10)
M. Rappaz
A. Jacot
W. J. Boettinger
Introduction and Theoretical Aspects
172(3)
Results and Discussion
175(4)
Conclusion
179(1)
Acknowledgements
180(2)
Phase-field Modeling of Eutectic Solidification: From Oscillations to Invasion
182(8)
Roger Folch
Mathis Plapp
Introduction
182(1)
Model
183(2)
Simulations
185(3)
Conclusion
188(2)
Phase-field Theory of Nucleation and Growth in Binary Alloys
190(6)
Laszlo Granasy
Tamas Borzsonyi
Tamas Pusztai
Introduction: Diffuse Interface and Nucleation
190(1)
Phase-field Theory of Nucleation
191(2)
Nucleation in 3D
191(1)
Multi Particle Solidification in 2D
192(1)
Results and Discussion
193(3)
Modelling of Phase Transformations in Titanium Alloys with a Phase-field Model
196(6)
Benoit Appolaire
Elisabeth Gautier
Introduction
196(1)
Which Model to Choose?
197(1)
Can we Rely on the Model to Get Quantitative Predictions?
198(4)
Spreading of Liquid Monolayers: From Kinetic Monte Carlo Simulations to Continuum Limit
202(6)
M. N. Popescu
S. Dietrich
Introduction
202(1)
Model and KMC Simulations
202(2)
Results and Discussion
204(2)
Patterned Substrates
206(1)
Summary and Conclusions
207(1)
A Multi-mesh Finite Element Method for Phase-field Simulations
208(10)
Alfred Schmidt
Models for Solidification
208(3)
Sharp Interface Models
209(1)
Diffuse Interface Models
209(2)
Adaptive Finite Element Methods for Coupled Systems of PDE
211(2)
Aspects of Implementation
212(1)
Numerical Analysis and Adaptive Methods
212(1)
Adaptive Method for Phase-field Models
213(5)
Transport of Point Defects in Growing Si Crystals
218(8)
Axel Voigt
Christian Weichmann
Introduction
218(1)
Point defect modeling
219(3)
Finite element discretisation
222(1)
Results
223(1)
Conclusions
224(1)
Acknowledgment
225(1)
Atomistic Simulation of Transport Phenomena in Simple and Complex Fluids and Fluid Mixtures
226(23)
Kurt Binder
Jurgen Horbach
Walter Kob
Fathollah Varnik
Introduction
226(1)
Interdiffusion and Selfdiffusion in Binary Mixtures (A,B)
227(6)
Estimation of Selfdiffusion Coefficients in Various Models of Fluids
233(7)
Estimation of the Shear Viscosity
240(4)
Thermal Conductivity
244(1)
Concluding Remarks
245(4)
Unusual Viscosity Feature in Spinodal Decomposition Under Shear Flow
249(6)
Jian Wang
Wolfram Gronski
Christian Friedrich
Peter Galenko
Dieter Herlach
Introduction
249(1)
Theory
250(1)
Simulation Detail
251(2)
Conclusion
253(2)
Micro-macro Approach to Cluster Formation in Granular Media
255(14)
S. Luding
Introduction
255(1)
Models for Multi-particle Simulations
256(2)
The Event-driven, Rigid Particle Method
256(1)
The Time Driven, Soft Particle Technique
257(1)
The Connection Between Hard- and Soft-sphere Models
258(1)
Freely Cooling Granular Media
258(7)
Homogeneous and Inhomogeneous Cooling
260(1)
Cluster Structure
261(1)
Cluster Growth
261(2)
Micro-macro Transition
263(2)
Summary and Conclusion
265(4)
III Transport
Urban Transport Phenomena in the Street Canyon
269(6)
Maciej M. Duras
The Field Models of Vehicles and Pollutants
269(1)
The Governing Equations
270(2)
Optimal Control Problems
272(1)
Conclusions
273(1)
Acknowledgements
273(2)
Walker Behaviour Modelling by Differential Games
275(20)
Serge P. Hoogendoorn
Introduction
275(1)
Pedestrian Behaviour Framework
276(2)
Theory of Walking
278(2)
Conceptual Pedestrian Walking Task Model
280(6)
Walking Subtask Hierarchy
280(1)
Walking as a Feedback-oriented Control System
281(2)
Pedestrian Kinematics (Internal Model)
283(1)
Walking Discomfort (Resistance)
284(1)
Cost Components
285(1)
Cost L1 due to Deviation from Planned Route
285(1)
Proximity Cost L2
285(1)
Acceleration and Deceleration Cost L3
286(1)
Derivation of Walker Model
286(5)
Application of the Maximum Principle
286(3)
Cooperative Walker Model
289(1)
Relation to the Social-forces Model
290(1)
Model Refinements
290(1)
Approach to Model Calibration
291(1)
Application Results
292(1)
Conclusions and Future Research Directions
293(2)
Investigations of Vibrations in the Complex Dynamical Systems of Transmission Pipelines
295(6)
Elena Mul
Vladimir Kravchenko
Introduction
295(1)
Model
296(1)
Method
296(4)
Discussion of Results and Conclusions
300(1)
Information in Intelligent Transportation System
301(16)
J. Wahle
M. Schreckenberg
Introduction
301(1)
Two-route scenario
302(3)
Simulation technique
304(1)
Floating-Car Data
305(5)
Influence of the dynamic drivers
307(2)
Influence of the static drivers
309(1)
Different criteria
310(4)
Gradient of travel time
310(1)
Global density and speed
311(2)
Comparison
313(1)
Summary and conclusion
314(3)
Experiments on Route Choice Behaviour
317(5)
Reinhard Selten
Michael Schreckenberg
Thomas Pitz
Thorsten Chmura
Joachim Wahle
Introduction
317(1)
Experimental Setup
318(1)
Equilibrium Predictions and Observed Behaviour
318(1)
Response Mode
319(1)
Payoffs and Road Changes
320(1)
Conclusion
320(2)
Transport Out of a Gravitationally Stable Layer with the Help of a Faster Diffusing Substance: PDE Simulations and Scaling Laws
322(7)
Karsten Koetter
Malte Schmick
Mario Markus
Introduction
322(1)
Analytical Estimates
323(1)
Experiments
324(1)
PDE Simulations
325(1)
Conclusion
326(3)
Microscopic Parameters and Macroscopic Features of Traffic Flow
329(14)
Peter Berg
Eddie Wilson
Microscopic Parameters of Traffic Flow
329(1)
Stochastic and Deterministic Microscopic Description
330(1)
A Cellular Automata Model
330(1)
Car-following Models
331(1)
Optimal-velocity Car-following Models
331(1)
Derivation of Macroscopic Counterparts
332(2)
Similarity of Flow Patterns
334(1)
More Realistic Models
335(6)
Multi-species Traffic; Temporal and Spatial Variations of Driver Behaviour
337(2)
Reaction Time
339(1)
Multiple Look-ahead Models
339(1)
Multi-lane Flow
340(1)
Synchronised Flow
341(1)
Outlook
341(2)
An Adaptive Smoothing Method for Traffic State Identification from Incomplete Information
343(18)
Martin Treiber
Dirk Helbing
Introduction
343(1)
Description of the Method
344(6)
Application to German Freeways
350(7)
Summary and Outlook
357(4)
Probabilistic Description of Nucleation in Vapours and on Roads
361(29)
Reinhard Mahnke
Introduction
361(2)
Stochastic Master Equation Approach
363(5)
Nucleation in Supersaturated Vapours
368(8)
Car Cluster Formation on Roads
376(6)
An Advanced Model of Car Cluster Formation
382(3)
Conclusion
385(1)
Appendix: Derivation of Thermodynamic Potential and Corresponding Transition Rate
385(5)
Cellular Automata Simulation of Collective Phenomena in Pedestrian Dynamics
390(16)
Andreas Schadschneider
Ansgar Kirchner
Katsuhiro Nishinari
Introduction
390(3)
Collective Effects
390(2)
Modelling Approaches
392(1)
Basic Principles of the Model
393(2)
Definition of the Model
395(2)
Collective Phenomena
397(2)
Influence of the Floor Fields
399(2)
Friction Effects
401(2)
Conclusions
403(3)
Modeling, Simulation and Observations for Freeway Traffic and Pedestrian
406(16)
Yuki Sugiyama
Akihiro Nakayama
Introduction
406(1)
Brief Review of OV Model (Traffic in Circuit)
406(2)
Observations in the Bottleneck
408(2)
OV Model with a Bottleneck
410(8)
Modelling and Simulation
410(2)
The Structure of Flow Upstream of Bottleneck
412(5)
Summary and Conjecture
417(1)
Modeling Pedestrians in 2-dimensional OV Models
418(4)
Testing Traffic Flow Models
422
Elmar Brockfeld
Peter Wagner
So Much Models, so Little Time
422
Theory
422
Testing Dynamical Models
423
The Trouble with the Data
426
Daganzo's Data
426
The Contest
427
Building a Reference Model
427
Technicalities
428
The Rest of the Pack
429
Finally, the Rest (Preliminary Results!!!)
430
Conclusions & Further Plans
431

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