Antiviral and Antimicrobial Coatings Based on Functionalized Nanomaterials: Design, Applications, and Devices is the first book on functionalized nanoparticles-based coatings that encompasses the majority of aspects of antimicrobial and antiviral coatings. The use of functionalized nanoparticles has revolutionized all fields of science and engineering, and this book provides the reader with a fundamental, interdisciplinary look at this emerging field. It focuses on the most advanced coating systems being utilized by various industries including a discussion of the current challenges to be considered during manufacturing. This book provides both academics and those working in industry with a broad-based introduction to the area of modern antimicrobial coatings practices. Describes functionalized nanoparticles-based antimicrobial and antiviral coatings utilized in modern industrial platforms Evaluates functionalized nanoparticles-based antimicrobial and antiviral coatings as prime options for sustainable and transformational opportunities Serves as a reference for scientists and engineers who are searching for modern design techniques for antimicrobial and antiviral coatings systems

Antiviral and Antimicrobial Smart Coatings: Fundamentals and Applications provides a critical analysis of all types of smart antiviral and antimicrobial coatings currently being researched. The book opens with a discussion of the microbial and viral pathogens, including how to identify them and their interaction with surfaces. The next three sections look at the concept of smart coatings, specifically antibacterial, antifungal, and antiviral smart coatings, types, effects, and applications. The book concludes by discussing the methods and standards for characterization of coatings and then presents several real world case studies. A valuable resource for those working in the smart coatings field. Introduces the concepts of smart coatings and the synthesis, characterization, and classification Provides insights into the pros and cons of established processes and thereby provides guidance on how to select the appropriate techniques for specific applications Discusses the process of applying smart antimicrobial and antiviral coatings on various surfaces Presents the methods for characterization of smart and multifunctional coatings

It is essential to harness the potential of nanotechnology in a rapidly evolving industrial environment. As industries grapple with the demand for more advanced, efficient, and sustainable solutions, the intricate amalgamation of chemistry, materials science, physics, biology, and technology in nanotechnology emerges as both a beacon of promise and a complex puzzle. The groundbreaking book, Sustainable Approach to Protective Nanocoatings, serves as a transformative solution. Tailored for academic scholars seeking comprehensive insights, this book navigates the labyrinth of nanotechnology with precision, offering a roadmap for leveraging nanostructured materials and coatings to meet the demands of the modern industrial world. By seamlessly weaving together the intricate tapestry of research methodologies, applications, and technological advances, the book emerges as an indispensable resource for those poised at the intersection of academia and industry.

Nanotechnology provides an innovative platform for drug delivery and antiviral actions. This book discusses the utilization of nano-based formulations for the control of viral agents. The antiviral potential of green synthesized silver, chitosan nanoparticles encapsulating curcumin, photoinduced antiviral carbon nanohorns, and the role of carbon-based materials like fullerenes, and carbon nanotubes in the repression of viral antigens are explained. The book also covers nanomaterial-based solutions for SARS-CoV-2 and other viral infections. Features: Explains theory and practical applications of nanomaterials as antiviral agents. Reviews upscaling of nanomaterials from laboratory to fabrication stage. Illustrates nanocurcumin, silver nanoparticles, and carbon nanoparticles for biomedical applications. Highlights role of nanotechnology in effectively combating viral infections and pandemics. Includes case studies of specific pharma companies. This book is aimed at researchers, graduate students in materials science, microbiology and virology, and pharmaceutical sciences.

Emerging microbial and viral infections are a serious challenge to health, safety, and economics around the world. Antimicrobial and antiviral technologies are needed to disrupt the progression and replication of bacteria and viruses and to counter their rapidly evolving resistance. This book discusses recent developments in materials science and engineering in combating infectious diseases and explores advances in antimicrobial and antiviral materials, including polymers, metals, and ceramics and their applications in the fight against pathogens. Features • Covers progress in biomimetic antimicrobial and antiviral materials and antimicrobial/antiviral bulk materials and coatings • Describes modern methods for disinfection of biomedical materials against microbial and viral infection resistance, especially for depressing novel coronavirus (COVID-19) • Details methods to improve material properties to have a longer service life in combating infection • Emphasizes chemical, physical, mechanical, tribological, and antimicrobial/antiviral properties • Offers current and future applications of emerging antimicrobial/antiviral technologies This book will be of interest to materials researchers and industry professionals focusing on antimicrobial and antiviral applications.

This book is motivated by our passion to compile recent research on antimicrobial surfaces. We aimed to assemble research papers on the preparation of new materials, antimicrobial testing using different pathogens (bacteria, fungi, and viruses), and the relationship between the coating nanostructure and its reactivity towards the studied pathogen(s). We believe that a good antimicrobial coating should by characterized by (i) a fast activity towards the pathogen, (ii) sustainable activity based on the stability of the coating, and (iii) the lowest possible toxicity for humans and reduced risks for the environment. Striking a compromise between these different challenges is difficult and requires more research.