Classical Approaches, Bayesian Inference, and Machine Learning
Buch, Englisch, Format (B × H): 155 mm x 235 mm
ISBN: 978-981-9286-98-0
Verlag: Springer
This book presents a unified, engineering-oriented treatment of inverse problems for graduate students, researchers, and computational engineers. It develops the subject from ill-posedness, identifiability, regularization, optimization, and numerical validation through Bayesian inversion, uncertainty quantification, and likelihood-free inference, and then explains how surrogate models, conditional generative models, operator learning, and physics-informed neural networks extend or accelerate these foundations. Rather than surveying these topics in isolation, the book organizes them within a common solution workflow and compares their assumptions, accuracy, uncertainty estimates, computational cost, robustness, and domains of applicability. Inverse heat conduction and material and structural parameter identification serve as recurring case studies, allowing classical, Bayesian, and scientific-machine-learning approaches to be evaluated on shared engineering problems. Mathematical derivations are combined with algorithmic descriptions, approximately 100 figures, comparative tables, and reproducible computational implementations. Readers will gain both a rigorous framework for selecting and assessing inverse methods and practical guidance for applying them responsibly to complex engineering data.
Zielgruppe
Research
Autoren/Hrsg.
Fachgebiete
Weitere Infos & Material
Preface.- Theoretical Foundations of Inverse Problems.- Overview of Inverse Problems and a Unified Analytical Framework.- Regularization, Optimization, and Validation.- Bayesian Inversion Computation.- Bayesian Inverse Problems and Uncertainty Quantification.- Approximate Bayesian Computation.- Efficient Bayesian Inversion: Dimension Reduction and Surrogate Models.- Scientific Machine Learning for Engineering Inverse Problems.- Conditional Generative Models and Posterior Approximation.- Operator Learning and Forward-Model Acceleration.- Physics-Informed Neural Networks for Inverse Problems.- Engineering Case Studies and Method Selection.- Inverse Heat Conduction.- Material and Structural Parameter Identification.- Method Selection, Reproducibility, and Outlook for Engineering Inverse Problems.- Appendices.- References.




