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1 Introduction 1 1.1 Introduction to Maple 1 1.1.1 Getting Started with Maple 1 1.1.2 Plotting with Maple 3 1.1.3 Solving Linear and Nonlinear Equations 5 1.1.4 Matrix Operations 6 1.1.5 Differential Equations 11 1.1.6 Laplace Transformations 16 1.1.7 Do Loop 18 1.1.8 While Loop 19 1.1.9 Write Data Out Example 19 1.1.10 Reading in Data from a Text File 23 1.1.11 Summary 24 1.1.12 Problems 24 References 27 2 Initial Value Problems 29 2.1 Linear Ordinary Differential Equations 29 2.1.1 Introduction 29 2.1.2 Homogeneous Linear ODEs 29 2.1.3 First Order Irreversible Series Reactions 31 Example 2.1. Irreversible Series Reactions (see equations (2.8)) 32 2.1.4 First Order Reversible Series Reactions 37 Example 2.2. Reversible Series Reactions (see equations (2.10)) 38 2.1.5 Nonhomogeneous Linear ODEs 47 Example 2.3. Heating of Fluid in a Series of Tanks 49 Example 2.4. Time Varying Input to a CSTR with a Series Reaction 56 2.1.6 Higher Order Linear Ordinary Differential Equations 63 Bibliografische Informationen http://d-nb.info/997432470 digitalisiert durch

VIII Contents Example 2.5 A Second Order ODE 65 2.1.7 Solving Systems of ODEs Using the Laplace Transform Method 72 Example 2.6. Laplace Solution of Example 2.1 Equations 73 Example 2.7. Laplace Solution for Second Order System with Dirac forcing Function 76 2.1.8 Solving Linear ODEs Using Maple's 'dsolve' Command 80 Example 2.8. Solving Linear ODEs Using Maple 80 Example 2.9. Heat Transfer in a Series of Tanks, 'dsolve' 81 2.1.9 Summary 83 2.1.10 Problems 84 2.2 Nonlinear Ordinary Differential Equations 87 2.2.1 Introduction 87 Example 2.2.1. Simultaneous Series Reactions 88 2.2.2 Solving Nonlinear ODEs Using Maple's 'dsolve' Command 94 2.2.3 Series Solutions for Nonlinear ODEs 98 Example 2.2.2. Fermentation Kinetics 99 Example 2.2.3 101 2.2.4 Stop Conditions 103 Example 2.2.4. Stop Conditions 103 2.2.5 Stiff ODEs 107 Example 2.2.5. Stiff Ordinary Differential Equations 107 2.2.6 Differential Algebraic Equations 112 Example 2.2.6. Differential Algebraic Equations 112 2.2.7 Multiple Steady States 116 Example 2.2.7. Multiple Steady States 117 2.2.8 Steady State Solutions 124 Example 2.2.8. Steady State Solutions 124 Example 2.2.9. Phase Plane Analysis 139 2.2.9 Summary 148 2.2.10 Problems 149 Appendix A: Matrix Exponential Method 155 Appendix B: Matrix Exponential by the Laplace Transform Method 161 References 167 3 Boundary Value Problems 169 3.1 Linear Boundary Value Problems 169 3.1.1 Introduction 169 3.1.2 Exponential Matrix Method for Linear Boundary Value Problems 169 Example 3.1 171 Example 3.2 175 3.1.3 Exponential Matrix Method for Linear BVPs with Semi-infinite Domains 180

DC Example 3.3 181 3.1.4 Use of Matrizant in Solving Boundary Value Problems 184 Example 3.4 185 Example 3.5 187 Example 3.6 189 3.1.5 Symbolic Finite Difference Solutions for Linear Boundary Value Problems 195 Example 3.7 196 Example 3.8. Cylindrical Catalyst Pellet 203 3.1.6 Solving Linear Boundary Value Problems Using Maple's 'dsolve'command 208 Example 3.9. Heat Transfer in a Fin 208 Example 3.10. Cylindrical Catalyst Pellet 209 Example 3.11. Spherical Catalyst Pellet 210 3.1.7 Summary 212 3.1.8 Exercise Problems 213 3.2 Nonlinear Boundary Value Problems 217 3.2.1 Introduction 217 3.2.2 Series Solutions for Nonlinear Boundary Value Problems 218 Example 3.2.1. Series Solutions for Diffusion with a Second Order Reaction 218 Example 3.2.2. Series Solutions for Non-isothermal Catalyst Pellet - Multiple Steady States 223 3.2.3 Finite Difference Solutions for Nonlinear Boundary Value Problems 229 Example 3.2.3. Diffusion with a Second Order Reaction 229 3.2.4 Shooting Technique for Boundary Value Problem 233 Example 3.2.4. Nonlinear Heat Transfer 233 Example 3.2.5. Multiple Steady States in a Catalyst Pellet 238 3.2.5 Numerical Solution for Boundary Value Problems Using Maple's 'dsolve' Command 244 Example 3.2.6. Diffusion with Second Order Reaction 245 Example 3.2.7. Heat Transfer with Nonlinear Radiation Boundary Conditions 247 Example 3.2.8. Diffusion of a Substrate in an Enzyme Catalyzed Reaction - BVPs with Removable Singularity 250 Example 3.2.9. Multiple Steady States in a Catalyst Pellet 253 Example 3.2.10. Blasius Equation - Infinite Domains 256 3.2.6 Numerical Solution for Coupled BVPs Using Maple's 'dsolve' Command 259 Example 3.2.11. Axial Conduction and Diffusion in a Tubular Reactor 259 3.2.7 Solving Boundary Value Problems and Initial Value Problems 262 Example 3.2.12. Diffusion with a Second Order Reaction 262

X Contents 3.2.8 Multiple Steady States 266 Example 3.2.13. Multiple Steady States in a Catalyst Pellet - ri vs. O 266 3.2.9 Eigenvalue Problems 272 Example 3.2.14. Graetz Problem-Finite Difference Solution 272 Example 3.2.15. Graetz Problem-Shooting Technique 278 3.2.10 Summary 286 3.2.11 Exercise Problems 288 References 293 4 Partial Differential Equations in Semi-infinite Domains 295 4.1 Partial Differential Equations (PDEs) in Semi-infinite Domains 295 4.2 Laplace Transform Technique for Parabolic PDEs 295 Example 4.1. Heat Conduction in a Rectangular Slab 296 Example 4.2. Heat Conduction with Transient Boundary Conditions 301 Example 4.3. Heat Conduction with Flux Boundary Conditions 305 Example 4.4. Heat Conduction with an Initial Profile 308 Example 4.5. Heat Conduction with a Source Term 311 4.3 Laplace Transform Technique for Parabolic PDEs - Advanced Problems 314 Example 4.6. Heat Conduction with Radiation at the Surface 314 Example 4.7. Unsteady State Diffusion with a First-Order Reaction 318 4.4 Similarity Solution Technique for Parabolic PDEs 324 Example 4.8. Heat Conduction in a Rectangular Slab 325 Example 4.9. Laminar Flow in a CVD Reactor 328 4.5 Similarity Solution Technique for Elliptic Partial Differential Equations 333 Example 4.10. Steady State Heat Conduction in a Plate 333 Example 4.11. Current Distribution in an Electrochemical Cell 336 4.6 Similarity Solution Technique for Nonlinear Partial Differential Equations 339 Example 4.12. Variable Diffusivity 340 Example 4.13. Plane Flow Past a Flat Plate - Blassius Equation 342 4.7 Summary 348 4.8 Exercise Problems 348 References 352 5 Method of Lines for Parabolic Partial Differential Equations 353 5.1 Semianalytical Method for Parabolic Partial Differential Equations (PDEs) 353 5.1.1 Introduction 353 5.1.2 Semianalytical Method for Homogeneous PDEs 353 Example 5.1. Heat Conduction in a Rectangular Slab 356

XI 5.1.3 Semianalytical Method for Nonhomogeneous PDEs 365 Example 5.2 366 Example 5.3 374 Example 5.4 382 Example 5.5 390 Example 5.6. Semianalytical Method for the Graetz Problem 401 Example 5.7. Semianalytical Method for PDEs with Known Initial Profiles 414 5.1.4 Semianalytical Method for PDEs in Composite Domains 425 Example 5.8 425 5.1.5 Expediting the Calculation of Exponential Matrix 437 Example 5.9 438 Example 5.10 442 Example 5.11 448 5.1.6 Summary 451 5.1.7 Exercise Problems 452 5.2 Numerical Method of Lines for Parabolic Partial Differential Equations (PDEs) 456 5.2.1 Introduction 456 5.2.2 Numerical Method of Lines for Parabolic PDEs with Linear 456 Example 5.2.1. Diffusion with Second Order Reaction 458 Example 5.2.2. Variable Diffusivity 464 5.2.3 Numerical Method of Lines for Parabolic PDEs with Nonlinear Boundary 469 Example 5.2.3. Nonlinear Radiation at the Surface 470 5.2.4 Numerical Method of Lines for Stiff Nonlinear PDEs 474 Example 5.2.4. Exothermal Reaction in a Sphere 474 5.2.5 Numerical Method of Lines for Nonlinear Coupled PDEs 480 Example 5.2.5. Two Coupled PDEs 480 5.2.6 Numerical Method of Lines for Moving Boundary Problems 491 Example 5.2.6. The Shrinking Core Model for Catalyst Regeneration 491 5.2.7 Summary 501 5.2.8 Exercise Problems 502 References 505 6 Method of Lines for Elliptic Partial Differential Equations 507 6.1 Semianalytical and Numerical Method of Lines for Elliptic PDEs...507 6.1.1 Introduction 507 6.1.2 Semianalytical Method for Elliptic PDEs in Rectangular Coordinates 507 Example 6.1. Heat Transfer in a Rectangle 508 Example 6.2 520

XII Contents 6.1.3 Semianalytical Method for Elliptic PDEs in Cylindrical Coordinates - Graetz Problem 536 Example 6.3. Graetz Problem with a Fixed Wall Temperature 536 6.1.4 Semianalytical Method for Elliptic PDEs with Nonlinear Boundary Conditions 547 Example 6.4. Nonlinear Radiation Boundary Condition 547 6.1.5 Semianalytical Method for Elliptic PDEs with Irregular Shapes 556 Example 6.5. Potential Distribution in a Hull Cell 556 6.1.6 Numerical Method of Lines for Elliptic PDEs in Rectangular Coordinates 564 Example 6.6. Numerical Solution for Heat Transfer in a Rectangle 565 Example 6.7. Numerical Solution for Heat Transfer for Nonlinear Elliptic PDEs 573 6.1.7 Summary 581 References 585 7 Partial Differential Equations in Finite Domains 587 7.1 Separation of Variables Method for Partial Differential Equations (PDEs) in Finite Domains 587 7.1.1 Introduction 587 7.1.2 Separation of Variables for Parabolic PDEs with Homogeneous Boundary Conditions 587 Example 7.1. Heat Conduction in a Rectangle 587 Example 7.2. Heat Conduction with an Insulator Boundary Condition 599 Example 7.3. Mass Transfer in a Spherical Pellet 604 7.1.3 Separation of Variables for Parabolic PDEs with an Initial Profile 609 Example 7.4. Heat Conduction in a rectangle with an Initial Profile 609 Example 7.5. Heat Conduction in a Slab with a Linear Initial Profile 613 7.1.4 Separation of Variables for Parabolic PDEs with Eigenvalues Governed by Transcendental Equations 618 Example 7.6. Heat Conduction in a Slab with Radiation Boundary Conditions 618 7.1.5 Separation of Variables for Parabolic PDEs with Nonhomogeneous Boundary Conditions 623 Example 7.7. Heat Conduction in a slab with Nonhomogeneous Boundary Conditions 623 Example 7.8. Diffusion with Reaction 629 7.1.6 Separation of Variables for Parabolic PDEs with Two Flux Boundary Conditions 635

XIII Example 7.9. Diffusion in a Slab with Nonhomogeneous Flux Boundary Conditions 635 7.1.7 Numerical Separation of Variables for Parabolic PDEs 643 Example 7.10. Heat Transfer in a Rectangle 643 7.1.8 Separation of Variables for Elliptic PDEs 649 Example 7.11. Heat Transfer in a Rectangle 649 Example 7.12. Diffusion in a Cylinder 655 Example 7.13. Heat Transfer with Nonhomogeneous Boundary Conditions 660 Example 7.14. Heat Transfer with a Nonhomogeneous Governing Equation 667 7.1.9 Summary 672 7.1.10 Exercise Problems 672 References 678 8 Laplace Transform Technique for Partial Differential Equations 679 8.1 Laplace Transform Technique for Partial Differential Equations (PDEs) in Finite Domains 679 8.1.1 Introduction 679 8.1.2 Laplace Transform Technique for Hyperbolic PDEs 679 Example 8.1. Wave Propagation in a Rectangle 679 Example 8.2. Wave Propagation in a Rectangle 682 8.1.3 Laplace Transform Technique for Parabolic Partial Differential Equations - Simple Solutions 685 Example 8.3. Heat Transfer in a Rectangle 685 Example 8.4. Transient Heat Transfer in a Rectangle 688 8.1.4 Laplace Transform Technique for Parabolic Partial Differential Equations - Short Time Solution 690 Example 8.5. Heat Transfer in a Rectangle 691 Example 8.6. Mass Transfer in a Spherical Pellet 696 8.1.5 Laplace Transform Technique for Parabolic Partial Differential Equations - Long Time Solution 701 Example 8.7. Heat Conduction with an Insulator Boundary Condition 703 Example 8.8. Diffusion with Reaction 709 Example 8.9. Heat Conduction with Time Dependent Boundary Conditions 714 8.1.6 Laplace Transform Technique for Parabolic Partial Differential Equations - Heaviside Expansion Theorem tor Multiple Roots 719 Example 8.10. Heat Transfer in a Rectangle 720 Example 8.11. Diffusion in a Slab with Nonhomogeneous Flux Boundary Conditions during Charging of a Batten' 725 Example 8.12. Distribution of Overpotential in a Porous Electrode 729

XIV Contents Example 8.13. Heat Conduction in a Slab with Radiation Boundary Conditions 736 8.1.7 Laplace Transform Technique for Parabolic Partial Differential Equations in Cylindrical Coordinates 742 Example 8.14. Heat Conduction in a Cylinder 742 8.1.8 Laplace Transform Technique for Parabolic Partial Differential Equations for Time Dependent Boundary Conditions - Use of Convolution Theorem 747 Example 8.15. Heat Conduction in a Rectangle with a Time Dependent Boundary Condition 748 8.1.9 Summary 755 8.1.10 Exercise Problems 755 References 760 9 Parameter Estimation 761 9.1 Introduction 761 9.2 Least Squares Method 762 9.2.1 Summation Form or Classical Form 769 9.2.2 Confidence Intervals: Classical Approach 775 9.2.3 Prediction of New Observations 776 9.2.4 A One Parameter through the Origin Model 777 9.3 Nonlinear Least Squares 778 Example 9.1. Parameter Estimation 783 9.4 Hessian Matrix Approach 789 9.5 Confidence Intervals 795 9.6 Sensitivity Coefficient Equations 797 9.7 One Parameter Model 807 9.8 Two Parameter Model 812 9.9 Exercise Problems 819 References 819 10 Miscellaneous Topics 821 10.1 Miscellaneous Topics on Numerical Methods 821 10.1.1 Introduction 821 10.1.2 Iterative Finite Difference Solution for Boundary Value Problems 821 Example 10.1. Diffusion with a Second Order Reaction 821 Example 10.2. Nonisothermal Reaction in a Catalyst Pellet - Multiple Steady States 825 10.1.3 Finite Difference Solution for Elliptic PDEs 827 Example 10.3. Heat Transfer in a Rectangle 827 Example 10.4. Heat Transfer in a Cylinder 832 10.1.4 Iterative Finite Difference Solution for Elliptic PDEs 833 Example 10.5. Heat Transfer in a Rectangle - Nonlinear Elliptic PDE 833

XV 10.1.5 Numerical Method of Lines for First Order Hyperbolic PDEs 838 Example 10.6. Wave Propagation in a Rectangle with Consistent Initial/Boundary Conditions 839 Example 10.7. Wave Propagation in a Rectangle with inconsistent Initial/Boundary Conditions...844 10.1.6 Numerical Method of Lines for Second Order Hyperbolic PDEs 848 Example 10.8. Wave Equation with Consistent Initial/Boundary Conditions 848 Example 10.9. Wave Equation with Inconsistent Initial/Boundary Conditions 852 10.1.7 Summary 855 10.1.8 Exercise Problems 855 References 856 Subject Index 857