The Classical Stefan Problem: basic concepts, modelling and analysis

Other | October 22, 2003

byS.C. Gupta, S.c. Gupta

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This volume emphasises studies related to
classical Stefan problems. The term "Stefan problem" is
generally used for heat transfer problems with
phase-changes such
as from the liquid to the solid. Stefan problems have some
characteristics that are typical of them, but certain problems
arising in fields such as mathematical physics and engineering
also exhibit characteristics similar to them. The term
``classical" distinguishes the formulation of these problems from
their weak formulation, in which the solution need not possess
classical derivatives. Under suitable assumptions, a weak solution
could be as good as a classical solution. In hyperbolic Stefan
problems, the characteristic features of Stefan problems are
present but unlike in Stefan problems, discontinuous solutions are
allowed because of the hyperbolic nature of the heat equation. The
numerical solutions of inverse Stefan problems, and the analysis of
direct Stefan problems are so integrated that it is difficult to
discuss one without referring to the other. So no strict line of
demarcation can be identified between a classical Stefan problem
and other similar problems. On the other hand, including every
related problem in the domain of classical Stefan problem would
require several volumes for their description. A suitable
compromise has to be made.
The basic concepts, modelling, and analysis of the classical
Stefan problems have been extensively investigated and there seems
to be a need to report the results at one place. This book
attempts to answer that need. Within the framework of the
classical Stefan problem with the emphasis on the basic concepts,
modelling and analysis, it tries to include some weak
solutions and analytical and numerical solutions also. The main
considerations behind this are the continuity and the clarity of
exposition. For example, the description of some phase-field
models in Chapter 4 arose out of this need for a smooth transition
between topics. In the mathematical formulation of Stefan
problems, the curvature effects and the kinetic condition are
incorporated with the help of the modified Gibbs-Thomson relation.
On the basis of some thermodynamical and metallurgical
considerations, the modified Gibbs-Thomson relation can be
derived, as has been done in the text, but the rigorous
mathematical justification comes from the fact that this relation
can be obtained by taking appropriate limits of phase-field
models. Because of the unacceptability of some phase-field models
due their so-called thermodynamical inconsistency, some consistent
models have also been described. This completes the discussion of
phase-field models in the present context.
Making this volume self-contained would require reporting and
deriving several results from tensor analysis, differential
geometry, non-equilibrium thermodynamics, physics and functional
analysis. The text is enriched with appropriate
references so as not to enlarge the scope of the book. The proofs
of propositions and theorems are often lengthy and different from
one another. Presenting them in a condensed way may not be of much
help to the reader. Therefore only the main features of proofs
and a few results have been presented to suggest the essential
flavour of the theme of investigation. However at each place,
appropriate references have been cited so that inquisitive
readers can follow them on their own.
Each chapter begins with basic concepts, objectives and the
directions in which the subject matter has grown. This is followed
by reviews - in some cases quite detailed - of published works. In a
work of this type, the author has to make a suitable compromise
between length restrictions and understandability.

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This volume emphasises studies related toclassical Stefan problems. The term "Stefan problem" isgenerally used for heat transfer problems with phase-changes suchas from the liquid to the solid. Stefan problems have somecharacteristics that are typical of them, but certain problemsarising in fields such as mathematical physics and engin...

Professor S.C. Gupta obtained his DSc degree from the Indian Institute of Science in Bangalore, India. In 1997 he retired from the Indian Institute of Science in Bangalore. His areas of research are inclusion and inhomogeneity problems, thermoelasticity, numerical computations, analytical and numerical solutions of free boundary proble...

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The Classical Stefan Problem: Basic Concepts, Modelling And Analysis With Quasi-analytical…
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Paperback|May 1 2017

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Format:OtherDimensions:404 pages, 1 × 1 × 1 inPublished:October 22, 2003Publisher:Elsevier ScienceLanguage:English

The following ISBNs are associated with this title:

ISBN - 10:008052916X

ISBN - 13:9780080529165

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Table of Contents

Chapter 1. The Stefan Problem and its Classical Formulation 1.1 Some Stefan and Stefan-like Problems 1.2 Free Boundary Problems with Free Boundaries of Codimension- two 1.3 The Classical Stefan Problem in One-dimension and the Neumann Solution 1.4 Classical Formulation of Multi-dimensional Stefan Problems 1.4.1 Two-Phase Stefan problem in multipledimensions 1.4.2 Alternate forms of the Stefan condition 1.4.3 The Kirchhoff''s transformation 1.4.4 Boundary conditions at the fixed boundary 1.4.5 Conditions at the free boundary 1.4.6 The classical solution 1.4.7 Conservation laws and the motion of the melt Chapter 2. Thermodynamical and Metallurgical Aspects of Stefan Problems 2.1 Thermodynamical Aspects 2.1.1 Microscopic and macroscopic models 2.1.2 Laws of classical thermodynamics 2.1.3 Some thermodynamic variables and thermal parameters 2.1.4 Equilibrium temperature; Clapeyron''s equation 2.2 Some Metallurgical Aspects of Stefan Problems 2.2.1 Nucleation and supercooling 2.2.2 The effect of interface curvature 2.2.3 Nucleation of melting, effect of interface kinetics, and glassy solids 2.3 Morphological Instability of the Solid-Liquid Interface 2.4 Non-material Singular Surface : Generalized Stefan Condition Chapter 3. Extended Classical Formulations of n-phase Stefan Problems with n>1 3.1 One-phase Problems 3.1.1 An extended formulation of one-dimensional one- phase problem 3.1.2 Solidification of supercooled liquid 3.1.3 Multi-dimensional one-phase problems 3.2 Extended Classical Formulations of Two-phase Stefan Problems 3.2.1 An extended formulation of the one-dimensional two-phase problem 3.2.2 Multi-dimensional Stefan problems of classes II and III 3.2.3 Classical Stefan problems with n-phases, n> 2 3.2.4 Solidification with transition temperature range 3.3 Stefan problems with Implicit Free Boundary Conditions 3.3.1 Schatz transformations and implicit free boundary conditions 3.3.2 Unconstrained and constrained oxygen-diffusion problem (ODP) Chapter 4. Stefan Problem with Supercooling : Classical Formulation and Analysis 4.1 Introduction 4.2 A Phase-field Model for Solidification using Landau- Ginzburg Free Energy Functional 4.3 Some Thermodynamically Consistent Phase-field and Phase Relaxation Models of Solidification 4.4 Solidification of Supercooled Liquid Without Curvature Effect and Kinetic Undercooling : Analysis of the Solution 4.4.1 One-dimensional one-phase solidification of supercooled liquid (SSP) 4.4.2 Regularization of blow-up in SSP by looking at CODP 4.4.3 Analysis of problems with changes in the initial and boundary conditions in SSP 4.5 Analysis of Supercooled Stefan Problems with the Modified Gibbs-Thomson Relation 4.5.1 Introduction 4.5.2 One-dimensional one-phase supercooled Stefan problems with the modified Gibbs-Thomson relation 4.5.3 One-dimensional two-phase Stefan problems with the modified Gibbs-Thomson relation 4.5.4 Multi-dimensional supercooled Stefan problems and problems with the modified Gibbs-Thomson relation 4.5.5 Weak formulation with supercooling and superheating effects Chapter 5. Superheating due to Volumetric Heat Sources: Formulation and Analysis 5.1 The Classical Enthalpy Formulation of a One-dimensional Problem 5.2 The Weak Solution 5.2.1 Weak solution and its relation to a classical solution 5.2.2 Structure of the mushy region in the presence of heat sources 5.3 Blow-up and Regularization Chapter 6. Steady-State and Degenerate Classical Stefan Problems 6.1 Some Steady-state Stefan Problems 6.2 Degenerate Stefan Problems 6.2.1 Quasi-static Stefan problem and its relation to the Hele-Shaw problem Chapter 7. Elliptic and Parabolic Variational Inequalities 7.1 Introduction 7.2 The Elliptic Variational Inequality 7.2.1 Definition and the basic function spaces 7.2.2 Minimization of a functional 7.2.3 The complementarity problem 7.2.4 Some existence and uniqueness results concerning elliptic inequalities 7.2.5 Equivalence of different inequality formulations of an obstacle problem of the string 7.3 The Parabolic Variational Inequality 7.3.1 Formulation in appropriate spaces 7.4 Some Variational Inequality Formulations of Classical Stefan Problems 7.4.1 One-phase Stefan problems 7.4.2 A Stefan problem with a quasi-variational inequality formulation 7.4.3 The variational inequality formulation of a two- phase Stefan problem Chapter 8. The Hyperbolic Stefan Problem 8.1 Introduction 8.1.1 Relaxation time and relaxation models 8.2 Model I : Hyperbolic Stefan Problem with Temperature Continuity at the Interface 8.2.1 The mathematical formulation 8.2.2 Some existence, uniqueness and well-posedness results 8.3 Model II : Formulation with Temperature Discontinuity at the Interface 8.3.1 The mathematical formulation 8.3.2 The existence and uniqueness of the solution and its convergence as &tgr; → 0 8.4 Model III : Delay in the Response of Energy to Latent and Sensible Heats 8.4.1 The Clasical and the Weak Formulations Chapter 9. Inverse Stefan Problems 9.1 Introduction 9.2 Well-posedness of the solution 9.2.1 Approximate solutions 9.3 Regularization 9.3.1 The regularizing operator and generalized discrepancy principle 9.3.2 The generalized inverse 9.3.3 Regularization methods 9.3.4 Rate of convergence of a regularization method 9.4 Determination of Unknown Parameters in Inverse Stefan Problems 9.4.1 Unknown parameters in the one-phase Stefan problems 9.4.2 Determination of Unknown parameters in the two- phase Stefan problems 9.5 Regularization of Inverse Heat Conduction Problems by Imposing Suitable Restrictions on the solution 9.6 Regularization of Inverse Stefan Problems Formulated as Equations in the form of Convolution Integrals 9.7 Inverse Stefan Problems Formulated as Defect Minimization Problems Chapter 10. Analysis of the Classical Solutions of Stefan Problems 10.1 One-dimensional One-phase Stefan Problems 10.1.1 Analysis using integral equation formulations 10.1.2 Infinite differentiability and analyticity of the free boundary 10.1.3 Unilateral boundary conditions on the boundary: Analysis using finite-difference schemes 10.1.4 Cauchy-type free boundary conditions 10.1.5 Existence of self-similar solutions of some Stefan problems 10.1.6 The effect of density change 10.2 One-dimensional Two-phase Stefan Problems 10.2.1 Existence, uniqueness and stability results 10.2.2 Differentiability and analyticity of the free boundary in the one-dimensional two-phase Stefan problems 10.2.3 One-dimensional n-phase Stefan problems with n > 2 10.3 Analysis of the Classical Solutions of Multi-dimensional Stefan Problems 10.3.1 Existence and uniqueness results valid for a short time 10.3.2 Existence of the classical solution on an arbitrary time interval Chapter 11. Regularity of the Weak Solutions of Some Stefan Problems 11.1 Regularity of the Weak solutions of One-dimensional Stefan Problems 11.2 Regularity of the Weak solutions of Multi-dimensional Problems 11.2.1 The weak solutions of some two-phase Stefan problems in R n , n> 1 11.2.2 Regularity of the weak solutions of one-phase Stefan problems in R n , n> 1 Appendix A. Preliminaries Appendix B. Some Function Spaces and norms Appendix C. Fixed Point Theorems and Maximum Principles Appendix D. Sobolev Spaces Bibiography Captions for Figures Subject Index