Multi-Scale Shock Wave Mechanics Experimental, Computational, and AI Perspectives

Aim and Scope

Preface

Acknowledgment

About Editor

Part I: Fundamentals and Theoretical Frameworks of Shock Waves

Chapter 01: Introduction to Multi-Scale Shock Wave Mechanics

Satyvir Singh

Chapter 02: Advanced Mathematical Formulations of Shock Wave Propagation

Satyvir Singh

Chapter 03: Shock Structure in Hydrogen Gas Using a Two-Temperature Model: Influence of Bulk Viscosity

Anil Kumar, Rahul Bhattacharjee, Anirudh Singh Rana

Chapter 04: Far-Field Analysis of Weak Shock Waves in Radiative Magnetogasdynamics

Himanshoo Tiwari, Amit Tomar, Antim Chauhan

Part II: Experimental and Laser Diagnostics of Shock Waves

Chapter 05: Micro Shock Waves: Supersonic flows in micro-capillary tubes

Ulrich Teubner

Chapter 06: Shock induced boundary layer

Sidyant Kumar, Devansh Arora, Sada Nand, Sanjay Kumar

Chapter 07: Acoustic shock wave-induced phase transition in materials

Oviya Sekar, F. Irine Maria Bincy, Ikhyun Kim, S. A. Martin Britto Dhas

Part III: Computational and Numerical Modelling of Shock Waves

Chapter 08: Nonlinear Wave Interaction in a Self-Gravitating Gas

Nishi Deepa Palo, Amreeta Preetam, Charu Arora, Ashu Soni, Praveen Dwivedi

Chapter 09: Vortex Mach Number Impact on Flow Dynamics of Shock–Vortex Interaction

Satyvir Singh

Chapter 10: Role of Initial Separation Distance on Shock-Driven Tandem Heavy Cylindrical Bubbles

Satyvir Singh

Chapter 11: Influence of Magnetic Field Strength on Shock-Induced Dual-Mode Heavy Fluid Layer Dynamics

Liwen Shen, Satyvir Singh, Manuel Torrilhon

Chapter 12: Comparative Analysis of Shock Profiles Obtained Using High-Resolution Schemes in rhoCentralFOAM

T. Chourushi, Sunil Dingare, and Sudarshan B Sanap

Chapter 13: Finite-Volume Strategies for Thermochemical Nonequilibrium Modeling in High-Enthalpy Hypersonic Flows

Anu Priya, Ravi Kumar Peetala

Part IV: Artificial Intelligence and Data-Driven Methods in Shock Wave Research

Chapter 14: Shock Wave Prediction in Viscous Burgers’ Equation Using Weighted Physics-Informed Neural Networks

Satyvir Singh

Part V: Applications and Future Perspectives in Shock Wave Mechanics

Chapter 15: Shock Wave Phenomena in Hypersonic Aerospace Systems: Design Implications and Control Strategies

Muthuram A, P. Balakrishnan, Chitimada Narendra Kumar, Shabudin Bin Mat, Balaji Ganesan, Anita M

Biography

Dr. Satyvir Singh is currently a Research Associate Fellow at the Institute of Applied and Computational Mathematics, RWTH Aachen University, Germany. He earned his Ph.D. in Computational Fluid Mechanics from the School of Mechanical and Aerospace Engineering, Gyeongsang National University, South Korea. He also holds an M.Tech. in Industrial Mathematics & Scientific Computing from the Indian Institute of Technology Madras, India, and an M.Sc. in Mathematics from CCS University Meerut, India. Prior to his current position, Dr. Singh served as a Senior Research Fellow at the Research Center for Aircraft Parts Technology, Gyeongsang National University, South Korea, and as a Research Fellow at Nanyang Technological University, Singapore. He has also served as an Assistant Professor at institutions in India, teaching mathematics at undergraduate and postgraduate levels. His research interests span computational fluid dynamics, high-order numerical methods, hydrodynamic instability, gas kinetic theory, heat and mass transfer, and computational biology, reflected in over 55 peer-reviewed articles with more than 950 citations.