Sustainable Material for Biomedical Engineering Application discusses current interdisciplinary approaches in the development of materials and their derivatives that are sustainable for biomedical engineering application. Recent advancement of materials research has shown to have great impact on biomedical and clinical applications. With potential for sustainability, the materials discussed and illustrated in this book, may have the ability to increase and contribute to wider therapeutic options for patients. On the other hand, with the advancement in materials technology, they also have positive impacts in terms of reproducibility and more cost-effective manufacturing solutions for biomedical engineering industry. Some of the main aspects covered in this book are utilisation of human waste, food waste and green technology approach for materials in biomedical engineering applications such as tissue engineering, 3D printing and biosensing. A team of experts from various disciplines share recent advances that provide details and integrates different approaches to sustainable materials development. This book is intended for academicians, researchers, students and industrial players in the field of materials and biomedical engineering.

The sustainability of any process lies in the eco-friendly and economical production of products for applications. Bio-based materials are emerging as raw materials for different products and applications. The book covers cellulose, chitosan, silk, collagen and gelatin bio-based materials. It describes their use in biomedical applications, such as orthopaedic implant, drug delivery, tissue culture, biosensor and engineering applications such as fuel cells, energy storage and packaging. It concludes with the use of bio-based materials as precursors for biorefinery, biolubricants, membranes and adsorbents.

This new volume explores the integration of bionanomaterials and sustainable resources for the development of new and emerging sustainable processes. It highlights the concept of essential bionanomaterials derived from sustainable resources with examples of interdisciplinary methodologies and research that highlight the reuse of biomass waste as well as the proper usage of green technologies. The volume considers the most recent trends, challenges, and applications in bionanomaterials derived from sustainable sources in energy production and environmental mitigation. The book looks at state-of-the-art trends in the use of bionanomaterials for renewable energy such as in production of solar energy, for energy harvesting, and for energy conversion and storage. Chapters consider the application of bionanomaterials for the development of improved optical and electrical biosensors. The volume goes on to address the promising use of bionanomaterials for environmental remediation, such as for recovering heavy metals, radioactive metals, and other pollutants from wastewater, from river water, from soils, etc. Other topics include the use of sustainable nanomaterials in the food industry, in the biomedical field, in ecological research, and more. This volume, Sustainable Nanomaterials for Biosystems Engineering: Trends in Renewable Energy, Environment, and Agriculture, advocates innovative and emerging green technologies for bionanomaterials for an economical and sustainable society for the improvement of humankind in a variety of ways. It will be valuable for academicians, environmentalists, practitioners, NGOs, and industry professionals who are working in the field of biosystems engineering.

In recent years, nanomaterials have become one of the most dynamic exploration fields in the areas of engineering, technology, and science. This new volume focuses on the use of various bionanomaterials that can be introduced into the body as clinical devices for various medical purposes. The book also provides examples of cost-effective, sustainable alternatives to traditional medical procedures. The volume discusses how these materials have diverse applications in the biomedical fields, such as for cancer treatment, for orthopedic joint replacements, for medical diagnosis, for making bone plates, for wound healing, for nerve regeneration, for breast implants, in dental procedures, and so on. In addition, the book also covers some nonbiomedical applications of nanobiomaterials, such as, for example, to grow cells in a culture medium, as a blood protein test in laboratories, etc.

Materials for Biomedical Engineering: Biopolymer Fibers discusses the use of biopolymer fibers in the development of biomedical applications. It provides a recent review of the main types of polymeric fibers and their impact in biomedicine and related fields. The development of different instruments, such as sensors, medical fibers, and textiles are discussed, along with how they greatly benefited by progress made in polymeric fibers. The book provides a comprehensive and updated reference on the latest research in the field of biopolymers and their composites in relation to medical applications. - Provides a valuable resource of recent scientific progress, highlighting the application and use of polymeric fibers in biomedical engineering that can be used by researchers, engineers and academics - Includes novel opportunities and ideas for developing or improving technologies in biopolymers by companies, biomedical industries, and other sectors - Features at least 50% of references from the last 2-3 years

Handbook of Sustainable Materials presents recent developments in sustainable materials and how these materials interact with the environment. It highlights the recent advancements involved in proper utilization of sustainable materials, including chemical and biological approaches. With chapters written by global experts, the book offers a guide and insights into sustainable materials from a variety of engineering disciplines. Each chapter provides in-depth technical information on the sustainable materials theory and explores synthesis strategies, green materials, and artificial intelligence. The book considers applications in sectors such as aerospace, automobile, and biomedical for rapid prototyping and customized production without negative environmental impacts. It features research outcomes and case studies of optimization and modeling techniques in practice. Features: Presents recent developments in sustainable materials from various engineering fields and industry applications. Emphasizes analytical strategies, computational, and simulation approaches develop innovative sustainable materials. Discusses an artificial intelligence approach, rapid prototyping, and customized production. This book is designed for researchers and professionals working with sustainable materials, clean manufacturing, and environmental impacts.

Synthetic and Mineral Fibers, Their Composites and Applications reviews recent advances and technological developments in this important research field. The book provides an up-to-date record of significant research findings and observations along with an update on current and future potential applications. The book provides vital information on recent advancements, modern processing technologies, manufacturing, and applications and summarizes lifecycle and performance parameters for these types of composites. This book will be a valuable reference resource for academic and industrial researchers and materials scientists and engineers working in the development of polymer composite materials reinforced with synthetic and mineral fibers for applications in aerospace, medical, defense, automotive and construction sectors. - Covers both synthetic and mineral fibers, their composites, and applications - Highlights recent advances in mineral fiber- reinforced polymer composites, modern processing methods, and functionalization - Provides updates on hybrid (combination of both synthetic and mineral fiber) composite technologies - Features applications in aerospace, medical, defense and the construction industries

The text begins by discussing the processing and characterization of nano-manufactured resorbable bio nanocomposites and presents the latest advances in carbon-based polymer nanocomposite materials for sensing applications. It further presents different characterization techniques such as scanning electron, transmission electron, atomic force microscopy, and powder-X ray diffraction for the identification of bio nanocomposites. This book: Introduces nano-manufactured processed composites for biomedical application, processing, and characterization of bio nanocomposites. Presents biobased nano-manufactured processed composites for imaging, tissue repairing, and drug-delivery applications. Explains future trends of nano-manufactured composites in 3D bio-implants and fluorescent bioimaging. Highlights the challenges and perspectives of polymeric nano-manufactured composites for biomedical applications. Covers multifunctional nano-manufactured bio composites, and advances in polymeric membranes for healthcare applications. It is primarily written for senior undergraduates, graduate students, and academic researchers in the fields of manufacturing engineering, biomedical engineering, materials science and engineering, mechanical engineering, and production engineering.

Advanced Applications of Biobased Materials: Food, Biomedical, and Environmental Applications brings together cutting-edge developments in the preparation and application of biobased materials. This book begins by providing an overview of biobased materials, their classification, and their physical and chemical modifications. This is followed by a section covering the latest techniques in fabrication, processing, and characterization. Subsequent chapters are grouped by application area, offering insights into advanced and emerging utilizations of biobased materials in food, biomedical, environmental, and other industrial applications. The final part of the book highlights other key considerations, including life cycle assessment, circular economy, sustainability, and future potential. - Presents processing methods, characterization techniques, and the latest advances in biobased materials - Focuses on advanced and emerging applications of biobased materials in three key areas – food, biomedicine and the environment - Considers sustainability issues relating to biobased materials, including environmental impact, lifecycle assessment and the circular economy