Arun Thirumurugan – författare

Surface Modifications of Nanomaterials for Energy, Environmental and Biomedical Applications explores various strategies and techniques for successful surface modification of nanomaterials, focusing on the potential benefits of such modifications in a wide range of applications, including energy and environmental sectors, as well as biomedical applications. This book initially presents an overview of surface modification methods and characterization techniques of various nanomaterials, including two-dimensional materials, carbon nanomaterials, metals, and more. Other sections dive into the applications of surface modified nanomaterials in the fields of energy, biomedicine and environmental science. Future research directions and risk assessment are covered in the final section. This is an essential reference for academic and industrial researchers working to improve the properties of nanomaterials for several applications.Covers various techniques to achieve proper surface modification of nanomaterials for various applicationsDiscusses a wide range of applications including energy storage/conversion, water purification, sensors, and biomedical applicationsIncludes the latest research findings and future perspectives of sustainable approaches for the surface modification of nanomaterials

Functionalized magnetic nanomaterials are used in data storage, biomedical, environmental, and heterogeneous catalysis applications but there remain developmental challenges to overcome. Nanostructured Magnetic Materials: Functionalization and Diverse Applications covers different synthesis methods for magnetic nanomaterials and their functionalization strategies and highlights recent progress, opportunities, and challenges to utilizing these materials in real-time applications.Reviews recent progress made in the surface functionalization of magnetic nanoparticlesDiscusses physico-chemical characterization and synthesis techniquesPresents the effect of the external magnetic fieldDetails biological, energy, and environmental applications as well as future directionsThis reference will appeal to researchers, professionals, and advanced students in materials science and engineering and related fields.

Functionalized magnetic nanomaterials are used in data storage, biomedical, environmental, and heterogeneous catalysis applications but there remain developmental challenges to overcome. Nanostructured Magnetic Materials: Functionalization and Diverse Applications covers different synthesis methods for magnetic nanomaterials and their functionalization strategies and highlights recent progress, opportunities, and challenges to utilizing these materials in real-time applications.Reviews recent progress made in the surface functionalization of magnetic nanoparticlesDiscusses physico-chemical characterization and synthesis techniquesPresents the effect of the external magnetic fieldDetails biological, energy, and environmental applications as well as future directionsThis reference will appeal to researchers, professionals, and advanced students in materials science and engineering and related fields.

There is a growing interest in applying the UN's sustainable development goals to a variety of sectors. One can use certain principles of green chemistry in the emerging fields of nanoscience and nanotechnology. The green chemistry approach focuses on the creation of nanodimensional materials that have a low environmental impact, are cost-effective, and have no negative consequences on the environment. This book aims to summarise the different alternative green chemical routes. Furthermore, the book describes the use of nano-dimensional materials for sustainable energy generation and environmental remediation applications.

Handbook of 2D Materials for a Sustainable Future reviews a cutting‑edge area of materials science with enormous potential for a wide range of applications. It provides readers with a comprehensive understanding of the recent advancements of two‑dimensional (2D) materials alongside their functional modifications and practical applications, with a forward‑looking view on sustainable and scalable technologies.Volume Two provides a comprehensive exploration of the evolution, properties, and applications of 2D materials. Beginning with the historical and scientific background, it looks at the diverse functionalities of graphene, such as its role in biosensors and energy storage. It expands to other 2D materials like transition metal diselenides for solar cells, MXenes, and fullerene. It addresses broader energy applications and biomedical uses of 2D materials for neurodegenerative disorders.Key Features:Covers foundational concepts and emerging advancements in 2D materialsIntegrates interdisciplinary applications across energy, environmental science, electronics, and biomedicine, showcasing the broad utility of 2D materialsHighlights cutting‑edge research on MXenes, graphene quantum dots, and 2D heterostructures, areas not comprehensively covered in existing literatureThis book is intended for researchers, graduate students, and professionals in materials science, nanotechnology, chemical engineering, and applied physics. It serves as both a reference for experienced scientists and a foundational guide for those new to the field, fostering new ideas and future breakthroughs in nanoscience and nanotechnology.

2D Materials for a Sustainable Future reviews a cutting-edge area of materials science with enormous potential for a wide range of applications. It provides readers with a comprehensive understanding of the recent developments of 2D materials alongside their innovations and applications, with a forward-looking view on sustainable and scalable technologies.Volume One provides a panoramic view of the vibrant and multidisciplinary field of 2D materials. It includes content on recent advances in graphene, gas sensing, optoelectronic and photonic devices, electrochemical sensors for diagnostics and health monitoring, and energy applications. It also provides a thorough exploration of MXenes. Volume Two provides a comprehensive exploration of the evolution, properties, and applications of 2D materials. Beginning with the historical and scientific background, it looks at the diverse functionalities of graphene, such as its role in biosensors and energy storage. It expands to other 2D materials like transition metal diselenides for solar cells, MXenes, and fullerene. It address broader energy applications and biomedical uses of 2D materials for neurodegenerative disordersFeatures:Covers foundational concepts and emerging advancements in 2D materialsIntegrates interdisciplinary applications across energy, environmental science, electronics, and biomedicine, showcasing the broad utility of 2D materials.Highlights cutting-edge research on MXenes, graphene quantum dots, and 2D heterostructures, areas not comprehensively covered in existing literature.Both books are intended for the researchers, graduate students, and professionals in materials science, nanotechnology, chemical engineering, and applied physics. It serves as both a reference for experienced scientists and a foundational guide for those new to the field, fostering new ideas and future breakthroughs in nanoscience and nanotechnology.

The book presents the fundamentals of nanomaterials, discusses the direct applications of nanomaterials to the biomedical sector, and explores the potential therapeutic applications of nanotheranostics. This book focuses on the fundamental features of various nanomaterials that are related to the development of biomedical technologies. These fundamental qualities are broken up into three parts: prevention, diagnostics, and therapeutics. When it comes to infectious diseases, prevention is of the utmost importance. Highly advanced nanomaterials including silver, titanium, graphene-based filters, and copper nanoparticles are used to fight infectious illnesses. Once the symptoms have been recognized in the patients, through the use of effective and straightforward nanodiagnostic techniques, the diseases can be accurately localized in either a qualitative or quantitative manner. Nanodiagnostics tools currently dominate the field of biomedical diagnostics because of their high degree of accuracy, low requirement for samples and reagents, user-friendliness, portability, and capacity to perform point-of-care (POC) applications. Nanomaterials are widely used in imaging due to many factors, including: their signal generation and amplification abilities; the ongoing development of reliant new imaging techniques, such as photoacoustic imaging and Raman imaging; their targeting potential, due to the possibility of functionalizing their surface with cancer-targeting moieties; their multimodality, since some nanomaterials can generate signals for more than one imaging technique; and their affordability. Modern therapeutics explores the various nanotechnological advances to cure the site-specific cancer treatment most prominently. The book explores the fundamentals of nanomaterials and discloses their direct application to the biomedical field. Finally, the book discusses future therapeutic applications of nanotheranostics. Audience The book will be read by scientists, researchers, and post-graduate students in the biomedical-related engineering field, nanoscience and nanotechnology, materials science, and bionanotechnology.

This book covers fundamental microscopic techniques for Scanning Electron Microscopy (SEM), Transmission Electron Microscopy (TEM), Atomic Force Microscopy (AFM), and other microscopic tools.

This book covers fundamental microscopic techniques for Scanning Electron Microscopy (SEM), Transmission Electron Microscopy (TEM), Atomic Force Microscopy (AFM), and other microscopic tools.

This book covers the advanced fabrication techniques, challenges, and applications of photonic crystals for next-generation systems in various applications such as high-speed networks, photonic integrated circuits, health care, sensors, energy, and environmental. This book highlights the literature and works put forward by various scientists, researchers, and academicians in photonic crystals and their real-time applications. The content of the book appeals to readers such as students, researchers, and industrial engineers who are working in the design and development of photonics-based concepts, components, and devices for various applications.