Vijay Chaudhary – författare

Nanopaints: Characterization, Formulation and Emerging Applications provides a comprehensive overview of the state-of-the-art and recent advancements in the development and applications of natural nanopaints. It delves into the classification and formulation of paints using natural resources and discusses their characterization techniques. The subsequent chapters shed light on the challenges posed by the environmental and economic feasibility analysis of nano-enabled paints, highlighting the opportunities they present as well as the obstacles they face.This book is an important resource for researchers and professionals seeking to explore the utilization of green nanoparticles in the development of nanopaints, offering valuable information into how these nanopaints can surpass the durability and performance of traditional paints.Highlights the latest methods developed for preparation and characterization of natural nanopaintsFocuses on the utilization of sustainable, non-toxic, and biodegradable natural resources for the preparation of nanopaintsDiscusses emerging applications, including coatings for buildings, vehicles, and consumer products, as well as biomedical, electronic, and optical applications

The book explores the pertinent aspects of sustainability of green and eco-friendly composites including their development methods and processing, characterization, properties, and applications. Significance for the design and engineering of high-performance green and eco-friendly composites is discussed in the present book. Insights on a wide spectrum of potential advanced applications ranging from automotive and aerospace to biomedical and packaging, etc. using these are highlighted. Further, it discusses life cycle and carbon footprint assessment of sustainable materials.Features:Explores different processing methods of green and eco-friendly compositesDiscusses development and optimization of green nanocomposites for sustainable manufacturingCollates modern green and eco-friendly composites research from theory to applicationCovers hybridization of reinforced fibers on the performance of green and eco-friendly compositesAnalyzes and discusses calculation of carbon footprint and Life Cycle Assessment of compositesThis book is aimed at graduate students and researchers in materials science and engineering, sustainable materials, composites, and nanomaterials.

The book explores the pertinent aspects of sustainability of green and eco-friendly composites including their development methods and processing, characterization, properties, and applications. Significance for the design and engineering of high-performance green and eco-friendly composites is discussed in the present book. Insights on a wide spectrum of potential advanced applications ranging from automotive and aerospace to biomedical and packaging, etc. using these are highlighted. Further, it discusses life cycle and carbon footprint assessment of sustainable materials.Features:Explores different processing methods of green and eco-friendly compositesDiscusses development and optimization of green nanocomposites for sustainable manufacturingCollates modern green and eco-friendly composites research from theory to applicationCovers hybridization of reinforced fibers on the performance of green and eco-friendly compositesAnalyzes and discusses calculation of carbon footprint and Life Cycle Assessment of compositesThis book is aimed at graduate students and researchers in materials science and engineering, sustainable materials, composites, and nanomaterials.

This book explores the modifying effects of various nanofillers on mechanical and physical properties of polymer nanocomposites. Looking at the four basic aspects of processing, characterization, properties, and applications, it analyzes how their features can allow for innovative multifunction within industry.Covering design, production, and manufacture, this book focuses on meeting end-use requirements and the fabrication of materials. The importance of mindful design and the use of an appropriate synthesis method is the primary lens through which theory and practice are discussed. This volume looks at the various synthesis methods available for organic nanofillers and what characterizes them. Properties including mechanical, thermal, electrical, and tribological are thoroughly examined, along with the various computational techniques used to determine them. With important sustainable properties, nanofillers are essential to meeting the increasing demand for biodegradable and environmentally friendly materials. This book details the role nanofillers have to play in sustainability, alongside economic factors such as efficient manufacturing processes.This book will appeal to both academic and industrial engineers involved with nanofillers in a variety of industries, including automotive, aerospace, and biomedical engineering.

This book explores the modifying effects of various nanofillers on mechanical and physical properties of polymer nanocomposites. Looking at the four basic aspects of processing, characterization, properties, and applications, it analyzes how their features can allow for innovative multifunction within industry.Covering design, production, and manufacture, this book focuses on meeting end-use requirements and the fabrication of materials. The importance of mindful design and the use of an appropriate synthesis method is the primary lens through which theory and practice are discussed. This volume looks at the various synthesis methods available for organic nanofillers and what characterizes them. Properties including mechanical, thermal, electrical, and tribological are thoroughly examined, along with the various computational techniques used to determine them. With important sustainable properties, nanofillers are essential to meeting the increasing demand for biodegradable and environmentally friendly materials. This book details the role nanofillers have to play in sustainability, alongside economic factors such as efficient manufacturing processes.This book will appeal to both academic and industrial engineers involved with nanofillers in a variety of industries, including automotive, aerospace, and biomedical engineering.

Analyzing the modifying effects of various inorganic nanofillers on the mechanical properties of polymer nanocomposites, this book covers processing, characterization, properties, and applications to analyze how these materials allow for innovative multifunction.This volume looks at various synthesis methods available within inorganic nanofillers and what characterizes them, covering design, manufacturing processes, and end-user results. The chapters focus on metal oxides, energy storage, and devices, alongside polymers used for packaging. This book details the role inorganic nanofillers have to play in cost-effective manufacturing processes due to their strength and efficiency, and their subsequent relevance to low-cost yet high-performance materials. Covering topics such as corrosion resistance, wear resistance, strength, and characterization, this book is an essential companion for any engineer working with inorganic nanofillers.This book will be of interest to engineers involved with inorganic nanofillers in a variety of industries, including automotive, aerospace, and biomedical engineering.

Analyzing the modifying effects of various inorganic nanofillers on the mechanical properties of polymer nanocomposites, this book covers processing, characterization, properties, and applications to analyze how these materials allow for innovative multifunction.This volume looks at various synthesis methods available within inorganic nanofillers and what characterizes them, covering design, manufacturing processes, and end-user results. The chapters focus on metal oxides, energy storage, and devices, alongside polymers used for packaging. This book details the role inorganic nanofillers have to play in cost-effective manufacturing processes due to their strength and efficiency, and their subsequent relevance to low-cost yet high-performance materials. Covering topics such as corrosion resistance, wear resistance, strength, and characterization, this book is an essential companion for any engineer working with inorganic nanofillers.This book will be of interest to engineers involved with inorganic nanofillers in a variety of industries, including automotive, aerospace, and biomedical engineering.

This two volume set will analyse the modifying effects of both organic and inorganic nanofillers on the mechanical properties of polymer nanocomposites. Detailing processing, characterization, properties, and applications, the books demonstrate how choosing the right nanofiller can encourage innovation, sustainability and cost effective manufacturing. The set includes the following volumes: - Volume one looks at organic nanofillers including natural fibres and membranes - Volume two focuses on inorganic nanofillers including metallic foams, metal oxides and hydrogels These volumes will be of interest to engineers involved with inorganic nanofillers, in a variety of industries including automotive, aerospace and biomedical engineering.

This book initiates with an introduction to polymeric materials, followed by various classifications and properties of polymeric implant material including various development methods of polymeric materials and their characterization techniques. An overview of various toxicology assessments of polymeric materials and polymeric materials for drug delivery system is also included. Design and analysis of polymeric materials-based components using Ansys software along with polymeric materials for additively manufactured artificial organs are also discussed.Features:Addresses assessment of polymeric materials in biomedical sciences, including classification, properties, and development of polymeric implantsCovers various topics in the field of tissue regenerationDiscusses biocompatibility, toxicity, and biodegradation of polymeric materialsExplores wide-scale characterization to study the effect of inclusion size on the mechanical properties of polymeric materialsReviews limitations and future directions on polymeric material with emphasis on biocompatibilityThis book is aimed at graduate students and researchers in biomaterials, biomedical engineering, composites, and polymers.

This book initiates with an introduction to polymeric materials, followed by various classifications and properties of polymeric implant material including various development methods of polymeric materials and their characterization techniques. An overview of various toxicology assessments of polymeric materials and polymeric materials for drug delivery system is also included. Design and analysis of polymeric materials-based components using Ansys software along with polymeric materials for additively manufactured artificial organs are also discussed.Features:Addresses assessment of polymeric materials in biomedical sciences, including classification, properties, and development of polymeric implantsCovers various topics in the field of tissue regenerationDiscusses biocompatibility, toxicity, and biodegradation of polymeric materialsExplores wide-scale characterization to study the effect of inclusion size on the mechanical properties of polymeric materialsReviews limitations and future directions on polymeric material with emphasis on biocompatibilityThis book is aimed at graduate students and researchers in biomaterials, biomedical engineering, composites, and polymers.

This two volume set will analyse the modifying effects of both organic and inorganic nanofillers on the mechanical properties of polymer nanocomposites. Detailing processing, characterization, properties, and applications, the books demonstrate how choosing the right nanofiller can encourage innovation, sustainability and cost effective manufacturing. The set includes the following volumes: - Volume one looks at organic nanofillers including natural fibres and membranes - Volume two focuses on inorganic nanofillers including metallic foams, metal oxides and hydrogels These volumes will be of interest to engineers involved with inorganic nanofillers, in a variety of industries including automotive, aerospace and biomedical engineering.

Self-healing materials, inspired by biological systems, possess the unique ability to repair damage autonomously or under external stimuli, leading to enhanced durability and reliability of products. This book explores the interdisciplinary field of sustainable nanotechnology with a focus on self-healing materials, providing a comprehensive understanding of their synthesis, properties, and practical applications within the context of sustainability. It bridges the gap between scientific research and industrial application by presenting theoretical concepts alongside real-world case studies and implementations.Features:Provides an in-depth exploration of the latest advances in sustainable nanotechnology, with a particular focus on self-healing materialsOffers actionable insights into how self-healing materials can be integrated into various industriesAdopts an interdisciplinary approach, covering the science, engineering, and sustainability aspects of self-healing nanomaterialsHighlights how self-healing materials can contribute to sustainability by reducing waste, enhancing energy efficiency, and lowering long-term costs in manufacturing and maintenanceFocuses on the environmental impact and sustainability considerationsThis book is aimed at graduate students and researchers in materials science and nanomaterials.

This book serves as a comprehensive laboratory guide to polymer science, bridging theoretical foundations with hands-on experimental practice. As the first installment of a four-volume series, it focuses on synthesizing polymers and biomaterials, and on the analytical techniques for their identification. The series collectively spans the full scope of polymeric materials, including testing and characterization (Volume 2), rheology and processing (Volume 3), and degradation and recycling (Volume 4). All experiments are described according to ASTM industry standards, covering polymer types from plastics and rubbers to fibers, blends, and composites. Each volume opens with an overview of its topic and emphasizes practical applications. Undergraduate and postgraduate students, as well as research scholars, will find this book to be an accessible guide and a comprehensive resource, providing a holistic understanding of experimental techniques in polymer science.