Damage Analysis of Natural Fiber-Reinforced Polymer Biocomposites: Destructive and Non-destructive Evaluation and Modelling presents the latest research findings in this important research field. The chapters focus on the causes of damage in these materials, its initiation, progression, detection, and evaluation using both experimental and numerical methods. It is only by understanding these mechanisms at a deeper level that new materials can be developed with enhanced properties for a broad range of different industrial applications.The book will be a valuable reference resource for academic and industrial researchers, as well as materials scientists and engineers and other professionals working in the damage mechanics of composites and polymer biocomposite materials.
Photocatalysts: Synthesis and Characterization Methods offers a systematic overview of the synthesis and characterization of photocatalysts using various methods and techniques. This book focuses on synthesis methods, nanostructure control, activity enhancement strategies, and characterization of semiconductor-based nanostructures. This book offers guidelines for designing novel semiconductor-based photocatalysts with low cost and high efficiency to meet the demands of the efficient utilization of solar light for energy production, environment remediation, etc.In addition, this book has covered various latest and sophisticated characterization techniques. This includes various spectroscopic, physicochemical, and electrochemical characterization techniques which help the researchers to understand the characteristics of the fabricated photocatalysts.
Electrospun Biomaterials for Tissue Engineering and Drug Delivery Applications introduces the fundamental principles of electrospinning and provides an understanding of the electrospinning process, including the selection of polymers, solvent systems, and processing parameters to achieve desired properties. Tissue engineering applications of electrospun nanofibers across a wide range of tissues and organs is covered, including bone, cartilage, skin, blood vessels, and more. This book also explores the growing role of electrospun biomaterials in wound dressings and controlled drug delivery systems, reviewing a broad selection of material classes such as starch, cellulose, chitosan, and gelatin. “Electrospun Biomaterials for Tissue Engineering and Drug Delivery Applications” is a useful resource for researchers and postgraduate students working in the fields of biomaterials, tissue engineering, and pharmaceutical sciences.
Bio-waste Derived Carbon Materials and their Applications Especially as Sensors highlights the role of carbon nanomaterials as bio-(sensors) in several fields, presenting key achievements to date in the areas of biosensor-based diagnostics and environmental applications. The book brings together the knowledge of key researchers from different areas of biosensors research, including an explanation of biomass carbonization by pyrolysis and hydrothermal methods, and its use as a cost-effective strategy for fabrication of electrodes for biosensing applications, along with a comparison of synthetic and bio-derived carbon materials and discussion of various techniques used to improve the surface properties of carbon nanomaterials to enhance the electrocatalytic behaviour of working electrodes. The book highlights the promising technology of biosensors in the field of health care and the environment and explains the methods available, presenting current strategies and future perspectives for bio-(sensor) based diagnosis using carbon materials as sensing materials.
Approximation Theory and Applications: Piecewise Linear and Generalized Functions presents the main provisions of approximation theory, and considers existing and new methods for approximating piecewise linear and generalized functions, widely used to solve problems related to mathematical modeling of systems, processes, and phenomena in fields ranging from engineering to economics. The widespread use of piecewise linear and generalized functions is explained by the simplicity of their structure. However, challenges often arise when constructing solutions over the entire domain of these functions, requiring the use special mathematical methods to put theory into practice. This book first offers a first full foundation in approximation theory as it relates to piecewise linear and generalized functions, followed by staged methods to resolve common problems in practice, with applications examined across structural mechanics, medicine, quantum theory, signal theory, semiconductor theory, mechanical engineering, heat engineering, and other fields. Later chapters consider numerical verification of approximation methods, and approximation theory as the basis for new macroeconomic theory with impulse and jump characteristics. Each chapter includes questions for review and sample problems, accompanied by a separate Solutions Manual hosted for instructor access.
Metaheuristics-Based Materials Optimization: Enhancing Materials Applications provides a guide to using metaheuristics-based computational techniques to improve the design, performance, and broaden the applications of various materials. The book fuses optimization algorithms with materials engineering, enabling more accurate simulations and models for analyzing and predicting the behavior of materials under different conditions, allowing for design of materials with improved performance, durability, energy efficiency, cost-effectiveness, and other desired characteristics. Metaheuristic approaches for material synthesis and design, structural optimization, material characterization, property prediction, and process optimization are all covered, as are comparisons of different algorithms, step-by-step guidelines on how to implement them, and case studies of them being applied in real-world settings.
Multi-material Additive Manufacturing: Processing, Properties, Opportunities, and Challenges outlines various methods for the additive manufacturing of multi-material polymers, metals, ceramics, and metal-ceramics, showing readers how to tailor these materials with specific properties and specialized applications. The first section of the book discusses the role of machine and process parameters, the selection of raw materials, interface control, thermodynamic calculations, and process simulations. The second section covers additive manufacturing techniques for multi-materials, and the book concludes with a section covering the different multi-materials that can be produced and their various applications, such as in electronics, biomedical engineering, and high-end mechanical instruments.
Distributed Optimal Control of Large-Scale Wind Farm Clusters: Optimal Active and Reactive Power Control, and Fault Ride Through explores the latest advances in distributed optimal control of large-scale wind farm clusters, also describing distributed optimal control techniques for high voltage ride through (HVRT). The control schemes can enable wind farm clusters to deliver the required active and reactive power for the secure operation of future renewable based power systems. Both mathematical formulations and algorithm details are provided in the book, with MATLAB codes in order to replicate and implement the distributed optimal control schemes. A volume in the Elsevier Wind Energy Engineering Series, this is a valuable resource for all those with an interest in the operation, control, and integration of wind power plants, wind farms, and electricity grids, both at research and operational levels. This includes researchers, faculty, scientists, engineers, R&D, and other industry professionals, as well as graduate and postgraduate students studying and working in wind energy.
Microalgal Biofuels: Biotechnology and Biorefineries advances reader understanding of microalgal biofuels as a sustainable energy solution and encourages the transition to cleaner energy by highlighting cutting-edge biotechnologies and innovative practices for reducing CO2 emissions in the biofuel production process. Broken into five sections, the first section, Microalgal Biofuels: Biotechnology and Biorefineries presents the scientific underpinnings of biofuel production and explores cutting-edge biotechnologies that are transforming microalgal biofuel production. Section two, "Advanced Microalgal Biofuels," focuses on the latest developments in biodiesel production from microalgae and discusses the novel production methods and standards in the industry. The third section, "Microalgal Biorefineries,” provides an in-depth examination of the design, technologies, and impacts of microalgal biorefineries with emphasis on the importance of optimal biomass utilization. Section four, "Environmental and Co-Product Perspectives," explores the environmental benefits of microalgal biofuels and the potential use of co-products such as nutraceuticals, animal feed, and bioplastics that reinforce the concept of a circular bioeconomy. Finally, section five, "Future Trends and Case Studies," considers the future of microalgal biofuels and discusses market trends, commercial production challenges, and innovative case studies from the field. Researchers and professionals in the fields of bioenergy, biotechnology, renewable energy, and environmental science, as well as students studying related fields will benefit from this timely reference.
Thermochemical Conversion of Biofuels from Biomass Feedstock and Solid Waste: Production and Pollutant Control offers a comprehensive summary of the state-of-the-art in biofuel production, with a special focus on pollutants control, which is both necessary and beneficial to the target audience and the development of this research field. Biofuel is currently a major trend due to the existing environmental crises as well as global energy challenges. Developing renewable and sustainable fuels from biomass and solid wastes and minimizing the formation of pollutants during the conversion process are currently of a great deal of academic and industrial importance and draws widespread attention.In addition, studies on the formation and transformation of pollutants such as heavy metals, chlorine, and Sulphur species during the process are usually conducted by researchers in the discipline of environmental engineering and are less known to bioenergy researchers. In this regard, this book serves as a bridge between relevant disciplines and present a comprehensive picture of the whole research field.