Paul K. Chu – författare

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.

Ion beam techniques provide unique capabilities for exploring and custom-tailoring properties, structure, interactions, and configuration of polymeric materials, biomolecular materials and biocompatible materials. New understanding of ion beam-matter interactions, and new facilities for precision ion beam processing now enable applications ranging from nanofabrication, nanopatterning and high-resolution resist lithography, and nanoparticle self assembly, to selective activation of surfaces, manipulation of cells, fabrication of biocompatible materials and fabrication of structures for 3D chip interaction. Presentations included in this volume address both the science and the emerging techniques underlying the fast-growing array of ion beam applications in which nanoscale dimensions or features are of critical significance. Topics include: beam lithography, pattern formation and nanowires; magnetic , optical and semiconductor applications; nanostructure formation and fabrication of 3D structures; ion-solid interactions; and biological and biomedical applications.

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.

It is increasingly apparent that ion-beam-based processing offers unique capabilities for fabrication and complex patterning of 3D, 2D or 1D structures at the few-nanometer scale (e.g., nanowires and quantum dots), and for custom tailoring of nanocomposites, nanoporous materials, catalyst surfaces, optical materials and nanoparticle assemblies. This book addresses achievements, applications and insights into such areas. It also seeks to identify potential dimensional limitations to the future practical implementation of this approach. Topics include: ion-beam nanofab - tools, techniques and applications; patterning, quantum dot synthesis and self assembly; and examples - applications and devices.

Ion beam techniques provide unique capabilities for exploring and custom-tailoring properties, structure, interactions, and configuration of polymeric materials, biomolecular materials and biocompatible materials. New understanding of ion beam-matter interactions, and new facilities for precision ion beam processing now enable applications ranging from nanofabrication, nanopatterning and high-resolution resist lithography, and nanoparticle self assembly, to selective activation of surfaces, manipulation of cells, fabrication of biocompatible materials and fabrication of structures for 3D chip interaction. Presentations included in this volume address both the science and the emerging techniques underlying the fast-growing array of ion beam applications in which nanoscale dimensions or features are of critical significance. Topics include: beam lithography, pattern formation and nanowires; magnetic , optical and semiconductor applications; nanostructure formation and fabrication of 3D structures; ion-solid interactions; and biological and biomedical applications.

This book is a comprehensive guide to the latest research on low-dimensional silicon carbide (SiC) nanostructures, including nanoparticles and quantum dots, diverse morphologies of nanowires, nanotubes, 2D honeycomb-structured monolayers, nanostructured films, and nanocomposites based on both sound experiments and ab initio calculations and simulations. It also covers the significant advances made in the past several decades in the structural, electronic, and optical properties of various polytypes of bulk SiC crystals as well as fruitful photonic applications of SiC. SiC nanostructures exhibit fascinating and industrially important properties, including diverse and transformable polytypes, complex and intriguing surface structures including fruitful surface color centers across the entire visible spectral region, and excellent biocompatibility. These properties make them ideal for use in nanoelectronics, photonics, electron field emission, sensing, quantum information, green energy conversion and storage, composite nanostructures, biomedical engineering, and medicine. SiC is also an excellent template for epitaxially growing high-quality graphene and other semiconductors.  This second edition of the book is significantly expanded and updated to reflect those newest advances as well as some important correlated points missed in the first edition, emphasizing the strong correlations between structures and properties. Newly incorporated and highly expanded topics include point defects and spin dynamics, impurities and luminescence, origins of presolar SiC grains, unique characteristics of SiC quantum dots, applications of SiC nanowires in microwave absorption and thermal management, two-dimensional SiC honeycomb-structured monolayers, etc. It is an essential and self-contained reference for materials scientists, physicists, chemists, and engineers working in microelectronics, optoelectronics, microengineering, and biomedical engineering. Graduate students and researchers new to the field will also find this book a valuable resource.

This book brings together the most up-to-date information on the fabrication techniques, properties, and potential applications of low dimensional silicon carbide (SiC) nanostructures such as nanocrystallites, nanowires, nanotubes, and nanostructured films. It also summarizes the tremendous achievements acquired during the past three decades involving structural, electronic, and optical properties of bulk silicon carbide crystals.SiC nanostructures exhibit a range of fascinating and industrially important properties, such as diverse polytypes, stability of interband and defect-related green to blue luminescence, inertness to chemical surroundings, and good biocompatibility. These properties have generated an increasing interest in the materials, which have great potential in a variety of applications across the fields of nanoelectronics, optoelectronics, electron field emission, sensing, quantum information, energy conversion and storage, biomedical engineering, and medicine. SiC is also a most promising substitute for silicon in high power, high temperature, and high frequency microelectronic devices. Recent breakthrough pertaining to the synthesis of ultra-high quality SiC single-crystals will bring the materials closer to real applications.Silicon Carbide Nanostructures: Fabrication, Structure, and Properties provides a unique reference book for researchers and graduate students in this emerging field. It is intended for materials scientists, physicists, chemists, and engineers in microelectronics, optoelectronics, and biomedical engineering.