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.

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.

Sustainable development has been gaining momentum in the modern world, and the use of nanomaterials in various applications is expanding. This volume explores the increasing valuable use of green nanomaterials in energy production and storage, in biomedical applications, and for agricultural and environmental sustainability. Providing an overview of the synthesis, characterization, and applications of green and sustainable nanomaterials, the volume presents a varied selection of examples in practice. Key features include: Provides valuable information on standard protocols for the synthesis of green nanomaterials Promotes advanced technologies for applications of green and sustainable nanomaterials Demonstrates numerous characterization tools for working with sustainable nanomaterials Explores application areas of the synthesized nanomaterials .

"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. The enlightening selection of chapters in Sustainable Nanomaterials for Biomedical Engineering: Impacts, Challenges, and Future Prospects provides a rich multidisciplinary resource on biotechnological interventions using sustainable nanomaterials for academicians, environmentalists, practitioners, NGOs and industrialists who are working in the field of biosystems engineering, and others"--

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.

Zusammenfassung: This book brings together various topics of nanomaterials in various industrial applications to promote sustainable development practices. The first part of the book describes green nanotechnology for clean energy and environmental sustainability, which includes heavy metal detoxification from water, wastewater remediation, dye degradation, and bioremediation. The second part of the book covers sustainable biomedical applications of nanomaterials such as antibacterial activity and drug delivery systems, which includes the toxicological as well as the antibacterial impacts that nanoparticles have on microorganisms. The subsequent chapters discuss the roles of nanomaterials for sustainability in agriculture, crop protection, plant disease management, food technology (increasing the efficiency of the food industry), and the textile industry. The book caters to researchers and scientists who are interested in the utilization of nanomaterials to enhance sustainable industrial practices

Cutting-Edge Applications of Nanomaterials in Biomedical Sciences is a comprehensive exploration of the revolutionary impact of nanotechnology on the field of medicine. This book delves into the remarkable potential of nanomaterials in advancing medical diagnostics and therapeutics, particularly in drug delivery. It serves as an indispensable guide, presenting the latest developments in nanomedicine, precision medicine, and nanoengineering while addressing the challenges and opportunities that arise. The book covers a wide range of topics, from nanomaterials for cancer therapy to their applications in imaging and diagnostics. It discusses the transformative role of nanomaterials in targeted delivery and controlled release, as well as their potential in regenerative medicine and infectious disease diagnosis and treatment. By presenting cutting-edge research and developments in the field, this book aims to bridge the gap between bench and bedside, providing a vital resource for researchers, clinicians, and students in the biomedical sciences. Moreover, it highlights the commercialization potential of nanomedicine, fostering collaboration between academia and industry. Policymakers and regulators will also find this book invaluable for understanding the ethical and safety implications of incorporating nanomaterials into medical practices.

Fungal Cell Factories for Sustainable Nanomaterials Productions and Agricultural Applications explores the mycogenic synthesis of many metal nanoparticles, including processing processes, environmental protection, and future perspectives. Nanomaterials, including silver, gold, palladium, copper, zinc, selenium, titanium dioxide, metal sulphide, cellulose, have been formed by major fungal genes, such as mushrooms, Fusarium, Trichoderma, endophytic fungi, and yeast, in addition to lichens. Understanding the exact process involved in the synthesis of nanoparticles and the effects of various factors on the reduction of metal ions can help to improve low-cost strategies for the synthesis and extraction of nanoparticles. Other sections focus on a new framework for the production of nano-antimicrobial, the use of myconanoparticles against plant diseases, post-harvest antibiotics, mycotoxin control and plant pests in addition to certain animal pathogens. Myconanomaterials are well developed with great potential and promise for advanced diagnostics, biosensors, precision farming and targeted smart delivery systems. - Assesses the impact of a variety of copper-based nanostructures on agri-food sectors, addressing the most relevant knowledge gaps - Explores the opportunities that myconanotechnology can provide for industrial applications - Explains the major challenges of applying myconanotechnology at an industrial scale

Environmental pollution is a worldwide concern now. A major section of the world population is struggling for drinking water. Polluted soil is resulting into low agricultural productivity and thus creating challenges in the way of sustainable livelihood of a large section of human population. Biological treatment can offer both green solutions for wastewater treatment and resource recovery as well. Like algal-based systems can be utilized for wastewater treatment and production of biofuels from the biomass grown on the wastewater. Bio-based nanomaterials have been extensively studied for their employability in the health care, process optimization, water resource management, dealing with environmental pollutants, biosensors, and many others. Bioprospecting of novel biological agents, bio-based products, and bioresource recovery are paving the way for sustainable development as they are providing local solutions for a number of problems. In this proposed book, we start with the introduction to bio-nanotechnological principles and later on discuss bio-based nanomaterials employability for a diverse range of applications from environment to energy to health care. This book provides with current trends in bio-nanotechnology for anthropogonic purposes, prospects, challenges, and way forward.