Nanomaterial-Based Metal Organic Frameworks for Single Atom Catalysis covers nanoparticles and their properties, including tunable pore size, efficient reacting capability, large surface area, and morphology, which make them effective catalytic agents. In addition, the book covers catalytic systems, in which nanomaterial-based metal organic frameworks can be applied efficiently as single atom catalysis to enable enhanced functionalities and activities of the reactions in various applications. This book is an important reference source that will be of use to materials scientists, engineers, chemists and chemical engineers who want to learn more about nanomaterials are being used for catalytic applications. Metal organic frameworks (MOFs) are hybrid organic–inorganic, porous, crystalline nanomaterials, and have aroused great attention in the field of catalysis because of their crystalized nano- (lt;2 nm) or meso- (2–50 nm) porous structure, extremely high surface area, and significant chemical diversity. This nanomaterial-based metal organic framework, as a single atom catalysis, enhances the catalytic ability of dispersed single atoms. - Provides information on the reactions catalyzed by single atom catalysts at the nanoscale - Explains the major applications of metal-organic-framework-derived nanomaterials - Assesses the major challenges of applying metal organic framework-derived nanomaterials on an industrial scale

This book presents the state-of-the-art advances and applications of nanozymes, the recently developing branch of enzymology that synthesizes and uses nanomaterials that mimic the function of traditional enzymes. During the past decade, the study of nanozymes has grown rapidly. Several new nanomaterials that exhibit enzymatic actions have been identified, along with new applications for their practical use. This book draws upon the work of experts from around the world and provides an in-depth analysis and cutting-edge overview of nanozymes, with an eye toward their present and future applications. Chapters are arranged in a logical order to provide physio-chemical characterization of nanozyme and basic mechanisms of their enzymatic actions. Focusing on current limitations of nanozymes and their reaction kinetics, the book presents a comprehensive discourse on nanozyme engineering that includes possible surface modifications to enhance nanozyme effectiveness. It also focuses on traditional and novel nanozyme applications, such as biosensing, drug delivery, and disease therapy, as well as their use as antibacterials. An important addition in this book is the summary of emerging literature on nanozyme toxicology. This book is intended as a ready reference for advanced undergraduate and graduate students doing research in nanotechnology; materials science; chemistry; and chemical, biological, biomedical, and food engineering. Research and development scientists, engineers, and technologists working in the chemical and biological/biomedical industries will gain much from the materials in this book for their industry practice. Presents a comprehensive discourse on nanozyme engineering that includes possible surface modifications to enhance nanozyme effectiveness. Discusses metal organic frameworks as nanozymes. Reviews on traditional and novel nanozyme applications, such as biosensing, drug delivery, disease therapy, and their use as antibacterials. Examines nanozyme toxicology. Dr. Sundaram Gunasekaran is a Professor in the Department of Biological Systems Engineering at the University of Wisconsin–Madison.

Due to their unique chemical structures and a wide range of biological activities, plenty of nanomaterials based on organic, inorganic, and hybrid compounds have attracted the extensive attention of scientists and made a great contribution to the development of biosensors, diagnosis, and their applications over the past few decades. These kinds of nanomaterials can be utilized as immobilization platforms, optical probes, or (photo)electroactive labels to improve the performance of (bio)sensing devices with higher sensitivity, stability, and selectivity, which undoubtedly revolutionize the way that traditional health monitoring, food safety, environmental research, even emergency security protection are performed.

As an emerging material platform, multifunctional coordination materials offer many advantages such as remarkable porosity, structural flexibility, crystallinity, and modifiable functionalities that render them highly suited to generate and store green energy. This book covers the design and fabrication approaches of multifunctional coordination materials for green energy-related technologies, including batteries, supercapacitors, solar cells, and nanogenerators. • Discusses fundamentals of multifunctional coordination materials. • Explains vital synthesis and design techniques as well as theoretical modeling. • Offers a comprehensive overview of preparation, structural and morphological properties, and applications in a wide variety of energy production, energy storage, and energy device technologies. • Assesses environmental impacts, recycling, challenges, and future perspectives. Multifunctional Coordination Materials for Green Energy Technologies is an ideal reference for advanced students and researchers working in materials engineering, including new catalyst development, battery design, and related areas.

The book presents recent advances in the field of nanoenzymes and the immobilization of enzymes in nanomaterials. Applications include disease diagnosis, environmental clean-up, biosensor manufacturing, drug delivery and vaccine production. Keywords: Nanoenzymes, Metal and Metal Oxide Nanoparticles, Carbon Nanotubes, Graphene, Activated Carbon, Enzyme Immobilization, Catalytic Activity, Leaching of the Enzyme, Enzyme Mimicking, Biosensors, Biosensing Mechanisms, Therapeutic Applications, Vассine Prоduсtiоn аnd Immunizаtiоn. Drug Delivery, Delivery of Vaccine Antigens, Antigen Resistance, Immunogenicity, Disease Diagnosis.

Surface Modified Nanomaterials for Applications in Catalysis: Fundamentals, Methods and Applications provides an overview of the different state-of-the-art surface modification methods of nanomaterials and their commercial applications. The main objective of this book is to comprehensively cover the modification of nanomaterial and their fabrication, including different techniques and discussions of present and emerging commercial applications. The book addresses fundamental chemistry concepts as applied to the modification of nanomaterials for applications in energy, catalysis, water remediation, sensors, and more. Characterization and fabrication methodologies are reviewed, along with the challenges of up-scaling of processes for commercial applications. This book is suitable for academics and practitioners working in materials science, engineering, nanotechnology, green chemistry and chemical engineering. - Provides an overview of the basic principles of surface modification of nanomaterials - Reviews useful fabrication and characterization methodologies for key applications - Addresses surface modified nanomaterials for applications in catalysis, energy, sensor, environment, and more

This book aims to summarize the latest research progress of biomedical nanozymes in diagnostic and therapeutic related fields. In terms of diagnostics, it will cover in vitro diagnostics, live analysis, and some emerging bioanalysis. In terms of therapeutics, it will introduce antioxidant therapy, peroxidation therapy and emerging therapy respectively. Furthermore, the research results previously scattered in many journals and conferences worldwide are methodically edited and presented in a unified form. Based on the new ideas and developments presented in this book, it will be of interest to readers from different areas, such as chemistry, materials, nanoscience and nanotechnology, biomedical and clinical studies, etc.

Advanced Nanomaterials for Electrochemical Energy Conversion and Storage covers recent progress made in the rational design and engineering of functional nanomaterials for battery and supercapacitor applications in the forms of electrode materials, separators and electrolytes. The book includes detailed discussions of preparation methods, structural characterization, and manipulation techniques. Users will find a comprehensive illustration on the close correlation between material structures and properties, such as energy density, power density, cycle number and safety.