Nanotechnology and Antivirus Nanomaterials for Combating COVID-19: Strategies against SARS-CoV-2 Variants in the Post-pandemic Era explores the state-of-the-art and advancements in nanotechnology to fight SARS-CoV-2 and its variants. Providing a comprehensive overview, the chapters cover the molecular mechanisms of viral infection and advanced tools for diagnosis, prevention, treatments, drug development, and vaccine creation, offering valuable insights into managing COVID-19. The book also includes discussions on potential challenges and future research directions. This book is a valuable resource for researchers, scientists, and professionals seeking a deeper understanding of nanotechnology's applications for preventing, diagnosing, and managing COVID-19.
Nanostructured Carbon Materials from Plant Extracts: Synthesis, Characterization, and Applications guides the reader through the preparation and utilization of carbon nanomaterials based on various biomass sources, including fruits, vegetables, leaves, pulp and other plant extracts. The book covers the fundamentals of nanostructured carbon materials and synthesis methods from a range of plant sources. Other chapters focus on characterization, analysis, simulation and modeling in order to prepare plant extract based carbon nanomaterials with the required properties. Final sections highlight key application areas, presenting methods and approaches to prepare these materials for specific uses. This book will be of interest to researchers and advanced students across nanomaterials, polymer science, composite science, sustainable materials, chemistry, chemical engineering, and materials science, as well as industrial scientists, engineers, and R&D professionals with an interest in sustainable carbon nanomaterials.
Nanotechnology: An Introduction, Third Edition provides a comprehensive overview of the rapidly growing and developing field of nanotechnology. The book is ideal for those new to nanotechnology, as well as individuals with a strong background in traditional disciplines such as physics, mechanical or electrical engineering, chemistry, biology, or those with experience in microelectromechanical systems (MEMS) technology. Fully updated to include the latest developments and trends on nanoscale approaches to toxicology, sustainability, and artificial intelligence, this book covers all essential aspects of chemistry, physical properties, design, manufacture, and applications, highlighting their impact on various nanotechnology areas.By combining principles, theory, and practical applications, this authoritative introduction provides a broad understanding of the possibilities and limitations in the field of nanotechnology. It serves as a valuable source of information for both academia and industry research and development.
Functionalization and Surface Science of Nanostructured Materials brings together cutting-edge techniques and strategies for surface functionalization of nanomaterials, supporting a range of novel applications. The book begins by presenting the fundamentals of surface science of nanostructured materials, introducing chemistry, physics, analysis, strategies, and fundamental methods. This is followed by detailed chapters focusing on simulation and theory, analytical tools, and novel strategies for fabrication, stabilization of nanostructures, and ligand exchange for hydrophilicity. Subsequent chapters provide in-depth coverage of applications across engineering, diagnostics, therapeutics, photovoltaics, photocatalysts, supercapacitors, and water treatment.This book will be of interest to all those with an interest in surface functionalization of nanomaterials for advanced applications, including researchers, advanced students, scientists, engineers, and R&D professionals.
Microfluidics for Chemical Engineering: Flow and Reaction, Microreaction, On-line Detection, and Product Engineering presents the fundamentals of microfluidic flow and dispersion and provides new insights on the use of microfluidics in the field of chemical engineering. The book provides a timely, comprehensive, and detailed overview, demonstrating this state-of-the-art methodology, research advances, and classic instances, and providing insightful, forward-looking perspectives. Content ranges from flow and dispersion in microfluidics, microreaction regulation via the coalesce and transfer of droplets, to product engineering regarding controllable fabrication of microparticles and microfibers with advanced functions.The chapters clearly summarize the design concepts and general strategies involved as well as the involved mechanisms and classic instances. Instructive advice is also featured throughout on rational regulation of multiphase flows and interfaces in microfluidics, thus offering guidance for process intensification of chemical engineering. It is primarily written for advanced graduate/postdoc students and researchers chemical engineering, but with relevance to materials scientists, physical and materials (including polymer) chemists, physicists, biochemists, as well as pharmaceutical and biomedical scientists.
Fatigue in Composites: Science, Damage Mechanics, and Design Applications, Second Edition provides an authoritative review of current knowledge on the fatigue behavior of composites. The book covers a wide range of different problems encountered by designers in the automotive, marine, and structural engineering industries. Sections cover methodologies and the response of materials under cyclic loadings, present more advanced topics such as the response of materials under in-service or extreme conditions, include theoretical developments and modeling approaches, and present industrial cases and applications in different fields of engineering.Fatigue in Composites: Science, Damage Mechanics, and Design Applications, Second Edition provides an authoritative review of current knowledge on the fatigue behavior of composites. The book covers a wide range of different problems encountered by designers in the automotive, marine, and structural engineering industries. Sections cover methodologies and the response of materials under cyclic loadings, present more advanced topics such as the response of materials under in-service or extreme conditions, include theoretical developments and modeling approaches, and present industrial cases and applications in different fields of engineering.Leading scientists from academia and industry have prepared the different chapters. Particular care has been devoted to coordinating the content, style, and philosophy behind the various chapters, with a central aim of providing a consistent and coherent approach. Several new topics have been included that were not available in the first edition in view of recent advances, such as the availability of new investigation techniques and the development of new areas of activity.
Smart Halloysite Nanotubes: Fundamentals and Applications takes its users on a journey that starts with a fundamental understanding and leads through the presentation of current research results to the latest developments and possibilities of applied use. An interesting discussion on commercialization strategies for the material concludes the 4-part manuscript, which is also complemented by an ancillary graphical abstract. Written by expert authors, the book is an essential reference for students and professional scientists or engineers in equal measure. Due to their distinctive characteristics, HNTs have garnered more and more attention by the scientific community in both academia and industry in recent years.
Metals as Clean Fuels: Preparation and Stabilization by One-Spot Alloying and Dealloying paves the way to metals as alternative clean fuels, by describing a scalable selective leaching method to activate metal fuels by increasing their surface-to-volume ratio, boosting in that way their reactivity with water for hydrogen and heat generation.This book starts by describing how metal fuels work in Chapter 1, followed in Chapter 2 by methods to activate metal fuels to render them reactive with water. One of these metal fuel activation methods is by introducing nanoporosity in the metal, which is the focus of this book. Also advances in describing and characterizing the (nano) porosity are presented and discussed. In Chapter 3, authors describe how dealloying can be used as an effective method to introduce nanoporosity in metals. Chapters 4 and 5 present the use of dealloying to create nanoporous aluminum in a two-step and a one-spot process, respectively. Because activated metal fuels become pyrophoric, Chapter 6 describes ways to suppress this pyrophoricity tendency. In Chapter 7, ways to harness energy during hydrolysis of metal fuels are discussed, and in Chapter 8, authors close by a perspective and prospective outlook, including context of materials science & engineering in metal fuel economy. Metals as Clean Fuel is a valuable resource for researchers and scientists in the subject areas of materials science and engineering, and those working in the fields of green energy materials, hydrolysis and battery.
High Strength Steels: Microstructure, Properties, and Applications summarizes the historical context and recent research directions of new high strength steels including high-strength low alloyed steel (HSLA), dual-phase (DP) steel, transformation-induced plasticity (TRIP) assisted steel, quenching and partitioning (Q&P) steel, medium-Mn steel, high-Mn twinning induced plasticity (TWIP) steel, bainitic steel, martensitic steel and maraging steel. In particular, the state-of-the-art understanding of the processing-microstructure-property relationship of these high-strength steels is the focus of this book. More importantly, the authors’ understanding on the deformation mechanisms of high-strength steels, which is based on their extensive research works over the last two decades, is thoroughly incorporated. Engineering applications of these materials are also discussed.High Strength Steels is suitable for new entrants or those working in related fields in academia and R&D in the subject areas of materials science and engineering and metallurgy.
Bridging the Gap: Corrosion Science For Heritage Contexts explores the decision-making processes for preserving heritage metals while also examining the collaborative, interdisciplinary relationships that underpin them. Through themed chapters, the book is designed to develop and strengthen collaboration between these three groups of professionals, creating a synergy that benefits research and practice for the preservation of heritage metals. It builds an overview of metals conservation across a broad range of heritage contexts, from indoor museum displays to fixed outdoor structures and moving objects.Researchers and practitioners provide critical insights into corrosion problems within heritage, current corrosion mitigation procedures, and the evidence supporting best practice guidance. The book will be a valuable reference resource for corrosion and corrosion protection scientists, heritage preservation scientists, conservation practitioners, and students studying preservation of cultural objects.