Sustainable practices within the mining and energy sectors are assuming greater significance due to uncertainty and change within the global economy and safety, security, and health concerns. This book examines sustainability issues facing the mining and energy sectors by addressing six major themes: Mining and Mineral Processing; Metallurgy and Recycling; Environment; Energy; Socioeconomic and Regulatory; and Sustainable Materials and Fleets. Emphasizing an integrated transdisciplinary approach, it deliberates on optimizing mining productivity and energy efficiency and discusses integrated waste management practices. It discusses risk management, cost cutting, and integration of sustainable practices for long-term business value. It gives a comprehensive outlook for sustainable mineral futures from academic and industry perspectives covering mine to mill optimization, waste, risk and water management, improved efficiencies in mining tools and equipment, and performance indicators for sustainable developments. It covers how innovation and research underpin management of natural resources including sustainable carbon management.
*Focuses on mining and mineral processing, metallurgy and recycling, the environment, energy, socioeconomic and regulatory issues, and sustainable materials and fleets.
*Describes metallurgy and recycling and uses economic, environmental and social parameter analyses to identify areas for improvement in iron, steel, aluminium, lead, zinc, copper, and gold production.
*Discusses current research on mining, performance indicators for sustainable development, sustainability in mining equipment, risk and safety management, and renewable energy resources
*Covers alternative and conventional energy sources for the mineral sector as well water treatment and remediation and energy sustainability in mining.
*Provides an overview of sustainable carbon management.
*Offers an interdisciplinary approach with international focus.
Rezensionen / Stimmen
"The book is an extremely important reference for the problem of brownfield sites and their remediation, arguably a definitive work."
-Neil Bose, University of Tasmania, Australia
"This book deliberates integrated innovative research to address the challenges of mining, mineral processing and metallurgical industries. It is a source of contemporary knowledge and unique expertise covering various subjects like recycling of precious and rare earth metals from electronic waste, mining environment, wastewater treatment, alternative energy resources, socioeconomic and risk management. The contributors are eminent representatives of industry, academia and government bodies from different parts of the world. This book is a boon for mineral and metallurgical experts looking for innovative ideas and solutions for sustainable growth. The concepts like waste to wealth, carbon foot print, zero waste and green chemistry were emphasized throughout the book. It clearly reflects the interdisciplinary approach which is appropriate to deal with the challenges faced by the minerals and energy sector. This book also provides an overview on new paradigms for sustainable mineral processing, prospects of nuclear and solar energy, integrated waste management practices for sustainability. It is indeed a pride of all concern technocrats, scientists and academicians dealing with mineral and energy sector to have copy of this book in their shelf. I strongly recommend this book on Sustainability in the Mineral and Energy Sectors for all Mineral and Metallurgical engineers, technocrats and policy makers."
- G. Bhaskar Raju, CSIR Madras Complex, Chennai, India
Sprache
Verlagsort
Verlagsgruppe
Zielgruppe
Für höhere Schule und Studium
Für Beruf und Forschung
Academic
Illustrationen
264 s/w Abbildungen, 61 farbige Abbildungen, 110 s/w Tabellen
110 Tables, black and white; 61 Illustrations, color; 264 Illustrations, black and white
Maße
Höhe: 254 mm
Breite: 178 mm
Gewicht
ISBN-13
978-1-4987-3302-1 (9781498733021)
Copyright in bibliographic data and cover images is held by Nielsen Book Services Limited or by the publishers or by their respective licensors: all rights reserved.
Schweitzer Klassifikation
Dr. Sheila Devasahayam is a faculty member of the Federation University Australia. She has a strong research background in both metallurgy and materials science. Sheila earned a PhD in materials science from the University of Queensland, Australia, with post-doctoral experiences from the University of Wollongong, University of Sydney, and University of New South Wales. Sheila has expertise in many aspects of industry-based materials science ranging from coatings, surface modifications, plasma and radiation chemistry, nanocomposites, super absorbents, super hydrophobic materials, and energy materials. Sheila previously earned a PhD in extractive metallurgy from the National Metallurgical Laboratory, CSIR-Madras University, India. She is involved in many industrial projects in the mineral sector including acid mine drainage, hydrometallurgy, pyrometallurgy, mineral processing, and coal processing with a focus on green chemistry and engineering. Sheila gained expertise in soil and water science and aquifer characterisation while working at the Centre for Water Resources, Anna University, India. She served in the Commonwealth Government, Australia as a scientific policy officer in the Department of Innovation. Sheila's inter-disciplinary, industry-focussed expertise has enabled her to provide innovative sustainable solutions to many immediate industrial problems and motivated her to edit this important book of transdisciplinary nature transcending individual disciplines.
Kim Dowling is a senior academic in the Faculty of Science and Technology at Federation University Australia and also holds an adjunct position at the University of Tasmania, Australia. She has been an active researcher for over 30 years, and her current interest is in the identification, characterization, and remediation of contaminated sites, with an emphasis on historical mining environments. She earned her PhD from James Cook University by developing a new and innovative method for assessment of gold deposits and also holds a Graduate Diploma in Environmental Management from Deakin University. She has extensive experience working in both the mining industry and the tertiary education sector, and actively contributes to both local and international discussions on environmental health and the emerging multidisciplinary field of medical geology.
Manoj Kumar Mahapatra, PhD, is a faculty member in the Department of Materials Science and Engineering at the University of Alabama at Birmingham (UAB), USA. His research focuses on ceramic and glass materials for energy applications. He has authored and coauthored over 35 peer-reviewed publications and holds 2 US patents. Dr. Mahapatra earned his PhD in Materials Science and Engineering from the Virginia Polytechnic Institute and State University. He worked at the Center for Clean Energy Engineering at the University of Connecticut prior to joining UAB.
Herausgeber*in
Federation University Australia, Ballarat, Victoria, Australia
Federation University Australia, Victoria
University of Alabama at Birmingham
Section I Mining and Mineral Processing. New Paradigms for Sustainable Mineral Processing. Assessment of Sustainability of Mineral Processing Industries. A Step Change in Mining Productivity: Time to Deliver the Promise. An Approach to Improve the Energy Efficiency of Mining Projects. Energy Use in Comminution in a Global Context. Mill-to-Melt-Energy Efficiency Opportunities. Section II Metallurgy/Recycling. Carbothermic Processing of Copper-Cobalt Mineral Sulphide Concentrates
and Slag Waste for the Extraction of Metallic Values. Processing of Lithium-Ion Batteries for Zero-Waste Materials Recovery. Selective Leaching: An Ecological Solution for Recovering Metals from Complex Minerals and Materials? Reductive Leaching of Metal Oxides in Hydrometallurgical Processing of Nickel Laterite Ores, Deep Sea Manganese Nodules, and Recycling of Spent Batteries/Catalysts. Sustainable Recycling Technology for Electronic Waste. Recovery of Rare Earth Elements from e-Wastes (Nd-Fe-B Spent Magnets) Using Magnesium Chloride Salts. Section III Environment. Building Suitable Restoration Approaches in the Brownfields. Mining and Environment. Sustainable Management of Mine Induced Water. Bioflocculants Relevant for Water Treatment and Remediation. Sustainability and Regional Development: When Brownfields Become Playing Fields. Sustainability of Mineral Processing and Metal Production for European Economies in Transition. Towards Sustainable Design of Landfill Clay Liners: A Case Study. Section IV Energy. Water and Energy Nexus: Impact of Energy Development on Water Resources. Alternative Energy Sources for Mineral Sector: An Overview. Nuclear Power: Current Status and Prospects. Carbon Capture and Storage. Photovoltaics: Current and Emerging Technologies and Materials for Solar Power Conversion. Improving Process Efficiency by Waste Heat Recuperation: An Application of the Limacon Technology. Urban Waste (Municipal Solid Waste-MSW) to Energy. Electrochemical Energy Systems and Efficient Utilization of Abundant Natural Gas. Unconventional Gas.Section V Socio-Economic, Regulatory. A Research and Education Framework to Support the Development of a Sustainable and Socially Responsible Mining Industry in Africa. Electronic Waste Processing through Copper Recycling: An Economic Analysis. The Importance of Risk Management in the Extractive Sector for a Sustainable Economy. Integrating Sustainability for Long-Term Business Value. Challenging the Challenging Regulatory Environment in Papua New Guinea. Section VI Sustainable Materials, Fleets. Sustainability Allusion, Societal Marketing and the Environmental Footprint of Hybrid Autos. Developing Novel Polymer Composites with Typical Applications in Transport Systems Exposed to High Wear and Corrosion Such as Mining Conveyors. Superhydrophobicity: From the Origin of the Concept to the Fabrication Methodologies for Applications in Pipeline Coatings. Application of Waste Materials (Fly Ash) as Novel Energy Materials.
