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Produktbild: Differential Equations in the Era of Computational Techniques
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Differential Equations in the Era of Computational Techniques

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Beschreibung

Produktdetails

Einband

Gebundene Ausgabe

Erscheinungsdatum

11.01.2027

Herausgeber

Mamta Kapoor + weitere

Verlag

Wiley-VCH

Seitenzahl

592

Auflage

1. Auflage

Sprache

Englisch

ISBN

978-1-394-35819-9

Beschreibung

Produktdetails

Einband

Gebundene Ausgabe

Erscheinungsdatum

11.01.2027

Herausgeber

Verlag

Wiley-VCH

Seitenzahl

592

Auflage

1. Auflage

Sprache

Englisch

ISBN

978-1-394-35819-9

Herstelleradresse

Libri GmbH
Europaallee 1
36244 Bad Hersfeld
DE

Email: gpsr@libri.de

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  • Produktbild: Differential Equations in the Era of Computational Techniques
  • Preface xix
    Acknowledgements xxiii

    1 A Comprehensive Guide to Partial Differential Equations: Theory, Numerical Methods, and Applications 1
    Jaya Gupta and Shubham Mishra

    1.1 Introduction 1
    1.2 Ordinary vs. Partial 2
    1.3 Origins and Historical Development 4
    1.4 Numerical Approaches Used to Solve Partial Differential Equations 5
    1.5 Classical Basis Function Methods Used for Solving Partial Differential Equations 6
    1.6 Conclusion 11

    2 Analytical Solutions of Various Types of Differential Equations via Variants of the Differential Transform Method 15
    Adarsh Bhardwaj and Geeta Arora

    2.1 Introduction 16
    2.2 Methodology 18
    2.3 Numerical Examples 25
    2.4 Conclusion 46

    3 Numerical Solution of Burgers' Equation Using Orthogonal Collocation Method 51
    Shelly Arora, Muskan, Abdul-Majeed Ayiebre and Happy Kumar

    3.1 Introduction 51
    3.2 Orthogonal Collocation Method 52
    3.3 Burgers' Equation 54
    3.4 Methodology 54
    3.5 Results and Discussion 56
    3.6 Conclusions 63

    4 Soliton Solutions and Chaotic Wave Dynamics in the Combined KdV-mKdV Equation 67
    Hamood Ur Rehman, Muhammad Shoaib Saleem and Ifrah Iqbal

    List of Abbreviations 68
    4.1 Introduction 68
    4.2 Description of MSSEM 70
    4.3 Simplest Equation Method 79
    4.4 Chaotic Analysis 82
    4.5 Multistability and Sensitivity Analysis 85
    4.6 Results and Discussion 87
    4.7 Novelty and Comparative Analysis 89
    4.8 Conclusion 90

    5 A Comparative Analysis on the Numerical Evaluation of Multiple Integrals Appearing in Mathematical Physics via Different Orthogonal Polynomial Wavelets 95
    Ashish Rayal, Mohammad Izadi and Sabri T.M. Thabet

    5.1 Introduction 96
    5.2 Orthogonal Wavelets 98
    5.3 Function Approximation via Orthogonal Wavelets 100
    5.4 Wavelets Scheme for Numerous Integrals 101
    5.5 Error Estimation 104
    5.6 Method Implementation 104
    5.7 Conclusion 114

    6 Analytical and Numerical Solutions of Different Types of Schrödinger Equations 119
    Keyur Modha and Mamta Kapoor

    6.1 Introduction 120
    6.2 Analytical Solutions of the Time-Independent Schrödinger Equation 123
    6.3 Analytical Solutions of the Time-Dependent Schrödinger Equation 127
    6.4 Numerical Approaches-Finite Difference Methods 131
    6.5 Advanced Numerical Methods: Spectral and Finite Element Approaches 134
    6.6 Nonlinear Schrödinger Equation 136
    6.7 Multidimensional Schrödinger Equation 142
    6.8 Applications in Physics and Optics 147
    6.9 Conclusions and Future Directions 153

    7 A Computational Study of Reaction-Convection-Diffusion Processes through Quintic Hermite Collocation Method 157
    Inderpreet Kaur

    7.1 Introduction 157
    7.2 Numerical Approach 159
    7.3 Error Analysis 162
    7.4 Stability Analysis 162
    7.5 Numerical Examples 165
    7.6 Conclusions 176
    7.7 Future Scope 177

    8 Numerical Solution of Generalized Burger-Huxley Equation Using Cubic Hermite Splines 181
    Shelly Arora, Ishika Mittal, Abdul-Majeed Ayiebre and Happy Kumar

    8.1 Introduction 181
    8.2 Generalized Burgers-Huxley Equation 182
    8.3 Hermite Interpolation 183
    8.4 Implementation of Hermite Collocation Technique 185
    8.5 Results and Discussion 188
    8.6 Conclusions 195

    9 Evaluation of Runge-Kutta Methods for Time Integration of the Burgers' Equation Utilizing the Compact Finite Difference Scheme 197
    Geeta Arora

    9.1 Introduction 198
    9.2 Sixth-Order Compact Finite Difference Scheme for the First-Order Derivative 199
    9.3 Compact Finite Difference Approximation for the Second-Order Derivative 203
    9.4 Numerical Implementation of the Compact Scheme for Burgers' Equation 205
    9.5 Runge-Kutta Schemes 206
    9.6 Numerical Results 213
    9.7 Conclusion 221

    10 Analytical Approximate Solutions for 2D Fractional PDEs: A Conformable Fractional Reduced Differential Transform Method 225
    Maher Jneid and Abir Chaouk

    10.1 Introduction 225
    10.2 Analysis of CFRDTM 227
    10.3 Applications and Discussion 229
    10.4 Conclusion 249

    11 Semianalytical Solution of Nonlinear Fractional Partial Differential Equations Using Accelerated HPTM 253
    Shabnam Jasrotia and Prince Singh

    11.1 Introduction 253
    11.2 Preliminaries 257
    11.3 AHPTM 259
    11.4 Condition of Convergence of AHPTM 262
    11.5 Application 262
    11.6 Conclusion 283

    12 Solution of Fuzzy Riccati Differential Equation Using Fuzzy Sumudu Decomposition Method 287
    Asha N., Deepak Kumar Sah, Sreenivasulu Ballem, K. Venkateshwarlu, Kottakkaran Sooppy Nisar, Ramalingaiah Kadari and Devika Dabke

    12.1 Introduction 288
    12.2 Novelty of the Work 290
    12.3 Preliminaries 290
    12.4 Fuzzy Riccati Differential Equation 292
    12.5 Numerical Results 297
    12.6 Conclusion 309

    13 Chaotic Behavior of Fractional Delay Differential Equations 311
    S. Priyadharsini, E. Kungumaraj, S. Saravanakumar and T. Sathiyaraj

    13.1 Introduction 312
    13.2 Preliminaries 317
    13.3 Main Result: Method of Steps 318
    13.4 Limitations 323
    13.5 Computational Method 324
    13.6 Example 327
    13.7 Significance of the Proposed Model 330
    13.8 Conclusion 332

    14 Physics-Informed Neural Network for Solving Coupled Ordinary Differential Equations 335
    Priyanka Chandra and Raja Das

    14.1 Introduction 336
    14.2 Differential Equations 338
    14.3 Physics-Informed Neural Networks 340
    14.4 Implementation of PINNs in ODEs 341
    14.5 Results and Discussion 346
    14.6 Conclusion 355

    15 Artificial Neural Network-Based Approximation of Nonlinear ODEs with Comparative Analysis of Activation Functions 361
    Hetvi Patel, Dhvani Patel and Yogeshwari F. Patel

    15.1 Introduction 362
    15.2 Theoretical Background of Multilayer Perceptron Neural Network 365
    15.3 Illustration 372
    15.4 Conclusion 396

    16 AI-Driven Numerical and Machine Learning Approaches for Solving Differential Equations 399
    S. Padmanabhan, Pallavi G., Kavya K. N. and Vijayalakshmi S.

    16.1 Introduction and Motivation 400
    16.2 Traditional Numerical Approaches 405
    16.3 Machine Learning Approaches for Differential Equations 408
    16.4 Hybrid AI-Numerical Techniques 413
    16.5 Data Pipeline and High-Dimensionality Handling 416
    16.6 Applications 420
    16.7 Case Studies and Experimental Results 422
    16.8 Comparison of Methods 426
    16.9 Challenges and Research Gaps 430
    16.10 Tools and Implementation Details 430
    16.11 Recent Research (2020-2025) and Literature Gaps 431
    16.12 Future Directions and Emerging Trends 432
    16.13 Conclusion 434

    17 PDE-Constrained Neural Fusion for Infrared and Visible Images 439
    Gargi Trivedi

    17.1 Introduction 439
    17.2 Mathematical Foundations 440
    17.3 Methodology 444
    17.4 Training Algorithm and Experimental Setup 447
    17.5 Results and Analysis 450
    17.6 Conclusion 454

    18 Numerical Methods in Biological and Medical Modeling-Diverse Applications 457
    Ravneet Kaur and Mamta Kapoor

    18.1 Introduction 458
    18.2 Simulation of Population Dynamics Using Differential Equation Solvers 461
    18.3 Modeling Diffusion-Reaction Processes in Biology and Medicine 463
    18.4 Numerical Methods for Epidemiology 466
    18.5 High-Performance and Data-Driven Methods 472
    18.6 Comparative Analysis of Numerical Approaches 473
    18.7 Conclusion and Future Perspectives 476

    19 Time-Delayed Modeling of Diabetic Neuropathy Using Delay Differential Equations 479
    Dipesh, Ankita Tiwari, Gunal Malhotra and Pankaj Kumar

    19.1 Introduction 480
    19.2 Mathematical Model 482
    19.3 Numerical Example 490
    19.4 Conclusion 491
    19.5 Future Scope 492

    20 Computational Modeling and Numerical Simulation of Hepatitis B Dynamics with Nonlinear Incidence 495
    Mustaq Ahmad, Archana Singh Bhadauria and Mahmood Khalid Jasim

    20.1 Introduction 496
    20.2 Model Formulation 497
    20.3 Parameter Values 498
    20.4 Analytical Analysis 499
    20.5 Numerical Methods 506
    20.6 Summary 517
    20.7 Conclusion 517

    21 Mathematical Analysis of a Plankton-Fish Interaction System in the Presence of Environmental Toxins and Additional Food 521
    Amit Sharma and R.P. Kaur

    21.1 Introduction 522
    21.2 Model System 523
    21.3 Dynamical Properties of Model System 525
    21.4 Stability Analysis 526
    21.5 Existence of Various Equilibria 527
    21.6 Stability of the System Around Different Equilibrium States 527
    21.7 Global Stability 531
    21.8 Hopf-Bifurcation Analysis 533
    21.9 Direction of Bifurcating Solutions 534
    21.10 Numerical Simulation 535
    21.11 Role of Available Additional Food (b1 and c1) to Zooplankton and Fish 538
    21.12 Impact of e, b1, and c1 in Termination of Planktonic Blooms 540
    21.13 Discussion and Conclusion 541

    References 542
    Appendix 546
    Index 549