Recycling And Reusing Of Engineering Materials

Recycling and Reusing of Engineering Materials: Recycling for Sustainable Developments covers the latest research and developments in recycling and reusing processes, including new fundamental concepts, techniques, methods and process flows. The book provides applications of these novel technologies to recycling processes and analyzes new and modern ways of recycling techniques. It provides a comprehensive literature review on fundamental aspects of recycling processes, recycling goals, characterization of waste streams, legislative policies and evaluation, electronic recycling, aircraft recycling, recycling processes, energy savings and issues, environmental issues, societal issues, recycled materials, market development for recycling, processing facilities, and awareness and importance of recycling safety. The book is an indispensable reference for researchers in academia and industry. Scientists can use this book for literature reviews and experimental details, and the industry can use its comprehensive detail for literature reviews and to upgrade their processes and systems. Provides the latest information on recycling and reusing processes Includes the results of laboratory experiments from the recycling of electronic waste, recycling of composites, and of aircraft and plastics Covers radioactive waste treatment and biological waste disposal Written by a team of authors with teaching and industrial experience

This new resource focuses on many recent advances in recycling and reuse of materials, outlining basic tools and novel approaches. It covers such important issues as e-waste recycling, bio-mass recycling, vermitechnology, recovery of metals, polymer recycling, environmental remediation, waste management, recycling of nanostructured materials, and more. Also included is coverage of new research in the use of laser spectroscopy, pyrolysis, and recycled biomaterials for biomedical applications.

"Recycling and reuse of materials is of considerable interest these days. This new resource, Engineering Technologies for Renewable and Recyclable Materials: Physical-Chemical Properties and Functional Aspects, focuses on many recent advances in recycling and reuse of materials, outlining basic tools and novel approaches. It covers such important issues as e-waste recycling, bio-mass recycling, vermitechnology, recovery of metals, polymer recycling, environmental remediation, waste management, recycling of nanostructured materials, and more. Also included is coverage of new research in the use of laser spectroscopy, pyrolysis, and recycled biomaterials for biomedical applications. Written by some of the most innovative minds in various fields of study, this book will help professionals and students understand cutting-edge and futuristic areas of recycling and reuse of materials, facilitating further research and application of some methods into real-world applications and helping to find suitable methods for solving a burning question of waste management. The volume will be of interest to scientists, engineers, technologists, and those in industry"--

MANAGEMENT OF ELECTRONIC WASTE Holistic view of the current and future trends in electronic waste management, focusing on recycling, technologies, and regulations Management of Electronic Waste delivers a complete overview of all aspects related to the toxicity characterization of electronic wastes, along with other important topics including resource recovery, recycling strategies, biotechnological advancements, and current perspectives on waste generation and management. The book presents hazards associated with conventional recycling methods and highlights environmentally compatible economic approaches for resource recovery, along with eco-friendly strategies for management of electronic wastes. The high metallic content, heterogeneous and composite nature of e-wastes make them a rich secondary reservoir of metals. The book explores the valuable potential of e-waste and highlights the eco-friendly, sustainable technologies and recycling strategies for the profitable and effective conversion of waste to wealth. Written by a highly qualified and internationally renowned author, Management of Electronic Waste covers sample topics such as: Rise of e-waste generation paired with rising economies and mounting demand for electrical and electronic devices, with a country-by-country breakdown Status of e-waste management and recycling efforts around the world, along with key processes that drive e-waste recycling Macroeconomic trends between global demand and supply for metal resources and the transition of linear to circular economy Bioleaching, an economic and green approach for recovery of metals, from e-waste and other low grade metal repositories Different metallurgical approaches for extraction and recovery of resources from e-waste and their pros and cons Filling a gap on the understudied biotechnological recycling techniques and methods for mitigating environmental pollution caused by electronic waste, Management of Electronic Waste serves as an excellent guide on the subject for electronic waste producers, consumers, recycling industries, policy and law makers, academicians, and researchers.

EduGorilla's GATE Materials, Manufacturing and Industrial Engineering (Vol 3) Study Notes are the best-selling notes for GATE Mechanical Engineering Exams in English edition. The content is well-researched and covers all topics in detail. The topic-wise notes are designed to help students prepare thoroughly for their exams. The notes also includes solved multiple-choice questions (MCQs) for self-evaluation, allowing students to gauge their progress and identify areas that require further improvement. These study notes are tailored to the latest syllabus of GATE Mechanical Engineering exams, making them a valuable resource for exam preparation.

This chapter aims to understand and analyze the failure mechanism of Steel Fiber-Reinforced Concrete (SFRC). Fiberreinforced Concrete (FRC) [ACI 116, 2000], Plain concrete fails in a brittle manner at the occurrence of cracking. Ductile fibers in FRC continue to carry stresses well beyond cracking, thus maintaining the structural integrity. The types of fibers using in FRC are Metallic (high-modulus) fibers and Nonmetallic (low-modulus). The metallic fibers to improve the flexural toughness and ductility of concrete for example: Steel, Carbon, and Glass. The Non-metallic (low-modulus) fibers enhance the fresh concrete properties and reduces the plastic-shrinkage cracking. Polypropylene, Cellulose, Nylon, Polyester. The steel fiber adding in to the concrete is called as steel Fiber Reinforced (SFRC) concrete. The SFRC is widely used in structure where fibre reinforcement is not essential for integrity and safety. For example: slabs on grade, rock slope stabilization and repair. The SFRC as substitutes of the shear reinforcement in structures/members and these concepts to cover in many building codes

Food waste has evolved into a global crisis, casting a long shadow over nations and the interconnected fabric of our world. The repercussions of this excess reverberate through environmental and socio-economic landscapes, demanding immediate attention. Globally, the challenge of reducing food waste is acknowledged as a linchpin in achieving a sustainable future. The book Sustainable Disposal Methods of Food Wastes in Hospitality Operations confronts this escalating issue head-on. It contends that the time is ripe for a change in waste disposal practices, advocating for sustainable methods to alleviate environmental strain, combat climate change, and safeguard public health. This book delves into the heart of waste management principles and strategies. Beyond identifying the severity of the issue, the book ventures into uncharted territories, exploring emergent debates surrounding systemic causes and solutions. In a world where information and communication technology empower organizations, a gap persists in translating these advancements into effective waste management initiatives. The book urges a holistic understanding of the issue, drawing attention to the need for collaborative efforts between governments and private industry players to bridge this divide. As it provides a global perspective, the handbook becomes a tool for those seeking to comprehend the intricate web of challenges posed by food waste and navigate towards a sustainable future.

This volume contains selected papers presented during the International Conference on Environmental Geotechnology, Recycled Waste Material and Sustainable Engineering (EGRWSE-2018). The papers focus on finding innovative ways of recycling and reusing waste materials, reducing demand for natural resources and processing industrial and chemical wastes such that disposal reduces their environmental burden. This volume will be of interest to researchers, policy makers and practitioners working in the field of waste management.