Written by a team of pioneering scientists from around the world, Low Temperature Plasma Technology: Methods and Applications brings together recent technological advances and research in the rapidly growing field of low temperature plasmas.
The book provides a comprehensive overview of related phenomena such as plasma bullets, plasma penetration into biofilms, discharge-mode transition of atmospheric pressure plasmas, and self-organization of microdischarges. It describes relevant technology and diagnostics, including nanosecond pulsed discharge, cavity ringdown spectroscopy, and laser-induced fluorescence measurement, and explores the increasing research on atmospheric pressure nonequilibrium plasma jets. The authors also discuss how low temperature plasmas are used in the synthesis of nanomaterials, environmental applications, the treatment of biomaterials, and plasma medicine.
This book provides a balanced and thorough treatment of the core principles, novel technology and diagnostics, and state-of-the-art applications of low temperature plasmas. It is accessible to scientists and graduate students in low-pressure plasma physics, nanotechnology, plasma medicine, and materials science. The book is also suitable as an advanced reference for senior undergraduate students.
Table of Contents
Fundamentals: Introduction. Atmospheric Pressure Plasmas. Processing and Characterization: Modeling of Low-Pressure Plasmas. Modeling of Atmospheric Pressure Plasmas. High-Pressure Microcavity Discharges. Atmospheric Pressure Nanosecond Pulsed Discharge Plasmas. On Atmospheric Pressure Nonequilibrium Plasma Jets. Cavity Ringdown Spectroscopy of Plasma Species. Laser-Induced Fluorescence Methods for Transient Species Detection in High-Pressure Discharges. Applications: Plasma Technology in Silicon Photovoltaics. Environmental Applications of Plasmas. Assessment of Potential Applications of Plasma with Liquid Water. Plasma-Assisted Surface Modification of Polymeric Biomaterials. Emerging Applications of Plasmas in Medicine: Fashion versus Efficacy. Plasma Surface Engineering of Titanium-Based Materials for Osteointegration. Index.
Paul K. Chu is Chair Professor of Materials Engineering in the Department of Physics and Materials Science at the City University of Hong Kong. A fellow of the IEEE, APS, AVS, and HKIE, Dr. Chu is the author of more than 20 book chapters, 900 journal papers, and 800 conference papers and holds numerous patents. He is also the senior editor of IEEE Transactions on Plasma Science, associate editor of Materials Science & Engineering Reports, and an editorial board member of several international journals. His research activities encompass plasma surface engineering and various types of materials and nanotechnology. He received a PhD in chemistry from Cornell University.
XinPei Lu is a professor (ChangJiang Scholar) in the College of Electrical and Electronic Engineering at Huazhong University of Science and Technology. A senior member of IEEE, Dr. Lu is the author or coauthor of 50 peer-reviewed journal articles and holds six patents. His research interests include low-temperature plasma sources and their biomedical applications, modeling of low-temperature plasmas, and plasma diagnostics. He received a PhD in electrical engineering from Huazhong University of Science and Technology.