1st Edition

Ideal and Resistive Magnetohydrodynamics

By Linjin Zheng Copyright 2027
316 Pages 49 B/W Illustrations
by CRC Press

This book describes state-of-the-art theories and applications of ideal and resistive magnetohydrodynamics (MHD). It fills a gap in the market between existing textbooks and the latest cutting-edge research developments, reviewing the profound and pioneering contributions of the theory’s founders and the latest developments and technologies. This book guides readers from the foundations and... Read more

Chapter 1: Introduction, Chapter 2: From Kinetic To Fluid Descriptions, Chapter 3: Fundamentals Of MHD Theory, Chapter 4: MHD Equilibrium, Chapter 5: Linear Ideal MHD Stability Theory In Cylindrical Geometry, Chapter 6: Linear Ideal MHD Stability Theory In Toroidal Geometry, Chapter 7: Linear Resistive MHD Stability Theory In Cylindrical Geometry, Chapter 8: Linear Resistive MHD Stability Theory In Toroidal Geometry, Chapter 9: Nonlinear Stability Theories, Chapter 10: Magnetic Fusion Concepts And Conclusive Remarks

Biography

Dr. Linjin Zheng is a research scientist at the Institute for Fusion Studies, The University of Texas at Austin (USA). He is a theoretical physicist for controlled thermonuclear fusion plasmas. He earned his MS degree from The University of Science and Technology of China and PhD from Institute of Physics Beijing, Chinese Academy of Sciences. He has published more than 100 scientific papers in Physics Review Letters, Physics Letters, Nuclear Fusion, Physics of Plasmas, and at major conferences. He edited one book and authored five more, covering ideal and resistive MHD, multifluids, and kinetic theories. Dr. Zheng's major contributions with his colleagues include the reformulation of gyrokinetic theory, renormalization of Lie transform theory, development of perpendicular magnetohydrodynamic theory, invention of the free boundary ballooning representation, solution of the X point equilibrium, discoveries of the second toroidal Alfvén eigenmodes and the current interchange tearing modes, etc. With his colleagues, he also developed the tokamak equilibrium code ATEQ and stability codes AEGIS and AEGIS-K.