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"Waste Management" is an essential book for anyone passionate about environmental engineering and sustainable development. This groundbreaking work delves deep into the complexities of waste management, offering a unique blend of technical knowledge, environmental stewardship, and forward-thinking strategies. It's designed for professionals, students, policymakers, and environmentally conscious citizens alike.The book begins by exploring the evolution of environmental policies, highlighting the pivotal role of government agencies and international perspectives in shaping waste management practices. It then transitions into the technical aspects of waste characterization and quantification, providing valuable insights into methods for dealing with both solid and hazardous waste. This section is crucial for understanding the environmental impacts of various waste streams and sets the stage for the discussions that follow.A key focus of the book is on the practical aspects of waste collection and transportation. Here, the authors discuss the design of efficient collection systems, delve into the logistics of waste transportation, and explore the latest technologies optimizing these processes. The comprehensive coverage includes management strategies for transfer stations, emphasizing operational efficiency and environmental compliance.The heart of the book lies in its detailed examination of waste treatment and disposal technologies. From engineering principles to the environmental implications of methods like incineration and composting, the book covers a wide array of topics. It provides a critical look at landfill management and highlights innovative recycling and resource recovery practices, exploring the exciting potential of waste-to-energy technologies and the reuse of waste as raw materials.One of the most forward-looking sections of the book discusses waste minimization and the principles of a circular economy. Here, the authors offer strategies for reducing waste at the source, designing recyclable products, and adopting sustainable consumption patterns. This section is particularly relevant in today's world, where the shift towards a circular economy is gaining momentum.The book doesn't shy away from the complexities of environmental impact assessments, offering methodologies and risk management strategies essential for any waste management project. The integration of environmental, social, and economic considerations is a recurring theme, emphasizing the need for holistic and sustainable waste management frameworks.Innovations in waste management are given a spotlight, showcasing the latest trends like smart waste management systems, artificial intelligence, and digitalization. This futuristic outlook is complemented by real-world case studies and best practices, providing practical insights and lessons learned from successful waste management initiatives.The book also addresses specific challenges and solutions in urban and industrial waste management, recognizing the unique problems faced in these environments. Topics like public health implications, urban planning, and sustainable industrial practices offer a comprehensive view of the diverse landscape of waste management.The final chapters of the book look towards the future, discussing the role of technological advancements, policy trends, and the sustainable development goals in shaping the future of waste management. This visionary approach makes "Waste Management" an invaluable resource for anyone looking to make a positive impact in the field of environmental engineering and beyond.

Concrete, the world's most commonly used construction material, is a heterogeneous structure made up of a variety of easily available basic building materials such as cement, coarse & fine aggregate, water, and, depending on the application, admixtures or other additives. When these ingredients are combined, a gel mass is formed that can be conveniently moulded into any shape. When the concrete is properly cured, it forms a matrix that holds the other materials together to create a solid stone-like substance known as concrete. Because of its resilience, rigidity, longevity, mouldability, performance, and economy, concrete is a flexible, durable, and long-lasting material used extensively in the building industry. For centuries, humans have used concrete in their ground breaking architectural feats. Cement is one of the most important glueing ingredients used by the building industry, mostly for concrete in large quantities, and its manufacture results in substantial carbon dioxide emissions; one tonne of cement generates approximately one tonne of carbon dioxide. There are two basic types of cement manufacturing processes, as well as a variety of kiln types. Depending on the water content of the raw material feedstock, these are referred to as "wet" or "dry." The wet process requires more energy to evaporate the 30 percent plus slurry water before heating the raw materials to the necessary calcination temperature. Due to shifts in habits, preferences, and society, the need for a sustainable alternative to traditional bricks is increasingly increasing, not just in metro cities but also in rural and urban areas. However, incorporating these additional materials into the building industry is extremely difficult. The technical properties of such materials containing such manufacturing wastes would necessitate a significant amount of ana. The aim is to use waste from the toothpaste industry as a substitute cementitious-material in concrete, partially replacing cement and sand, and as an alternative to virgin/mineral materials/natural resources in bricks, i.e. replacing clay.

This multidisciplinary book provides insights into the applications of the Internet of Things (IoT) to combined sewer overflows (CSO) and stormwater management (SWM) systems. It explores technical challenges and presents recent results to improve sewer and drainage system management using wireless underground communications and sensing in IoT. The book addresses both existing sensing network technologies and those currently in development in three major areas of CSO: combined sewer overflow management, subsurface sensing, and antennas in the layered medium. It explores new applications of IoT in sewer systems to improve public health, foster economic growth, and enhance environmental quality and responsibility for the community.Internet of Things in Smart Sewer and Drainage Systems: Theory and Applications will be a valuable reference for graduate students and academic researchers, as well as a hands-on guide for wastewater technicians, sanitary engineers, environmental specialists, and related industry practitioners.

This book provides a detailed study and assessment of water resources management andpollution control in different BRICS countries. The regions involved areBrazil, Russia, India, China and South Africa. This book gives importantinsight into how future sustainability depends on the development of effectivewater governance mechanisms at the level of countries. According to theregional characteristics from different aspects it cuts into the waterenvironment problems and studies in different ways, which is multifaceted andtargeted. Using case studies that include environmentally integrated basinexperiments (eibex) of Brazil, groundwater overflow zone of India, semi-aridriver basin of South Africa and so on, this volume provides criticalinformation for researchers and policymakers.

The world is facing a massive waste problem, and it is high time we all understand the gravity of the situation. This subchapter aims to shed light on the global waste crisis and its implications for everyone. Whether you are an environmental enthusiast or someone who is new to the concept of recycling, it is crucial to grasp the importance of addressing this issue collectively.¿The global waste problem is not limited to a specific region or country; it is a challenge that affects every corner of the world. Every year, billions of tons of waste accumulate, filling up landfills and polluting our oceans, rivers, and forests. The consequences of this rampant waste generation are dire and impact the environment, human health, and the economy.One of the most alarming aspects of the global waste problem is the sheer volume of waste being generated. As the world population continues to grow, so does our consumption, leading to an exponential increase in waste production. This unsustainable pattern of consumption and disposal is putting an immense strain on the planet's resources and ecosystems.Furthermore, the improper disposal of waste has severe environmental consequences. Landfills emit harmful greenhouse gases, contributing to climate change. Plastics and other non-biodegradable materials find their way into our oceans, causing irreversible damage to marine life and ecosystems. The contamination of soil and water due to hazardous waste poses a significant threat to human health and biodiversity.Understanding the global waste problem also requires recognizing the economic implications. The cost of managing and disposing of waste is a burden on governments and local communities. Moreover, valuable resources are being wasted when materials that could be recycled or reused end up in landfills. Recycling not only helps conserve resources but also creates job opportunities and stimulates economic growth.As individuals, we all have a role to play in addressing the global waste problem. By embracing the importance of recycling, we can contribute to reducing waste, conserving resources, and protecting the environment. Recycling helps to minimize the need for raw materials extraction and energy consumption, resulting in reduced greenhouse gas emissions.

Agricultural waste can be a source of energy, fertilizer, and other inputs at farm and industrial levels. Handling and managing agricultural waste are challenging tasks worldwide, especially in the context of environmental pollution control and sustainable agriculture. Thus, efficient management in terms of reuse, recycling, and reduction of agricultural waste is principally needed not only for the green economy but also for farmers¿ profitability. Agricultural Waste ¿ New Insights provides an understanding of agricultural waste production and management, discussing crop residue, biodegradables, biomass, composting and vermiculture, agricultural waste economics, air pollution, environmental safety, waste management and handling, on-farm waste reuse, and agricultural waste value addition. It provides key aspects of emerging technologies and their applications in the domain of agriculture waste management.

This book takes a theoretical and empirical distance from urban slums/low-income settlements as a threat to environmental sustainability and recast them as places where environmentally rehabilitative and circular practices occur¿drawing on the theoretical lens of the circular economy (CE). CE is defined as regenerative system that minimizes waste, emission, and energy leakage by slowing, closing, and narrowing material and energy loops. In principle, CE departs from the traditional linear model of take-make-use-dispose. As conceived in urban contexts, circular cities offer possibilities to regenerate natural systems, design out waste, and keep products in use. While the CE key principles of reduce, repair, and reuse are essential to the sustainable and inclusive interventions in urban slums, there is lack of case studies exploring the role of place and agency, especially the slum living-CE nexus in global south contexts. In inequitable urban transitions, a nuanced understanding of thesynergies between urban slums and the circular economy is not only theoretically relevant for reconceptualizing the slum in urban sustainability discourses but also exert policy and practice ramifications to decidedly figure out how the urban slum phenomenon can foster the sustainable and inclusive development of marginal areas through contextual and people-centered initiatives.

This book and its 2 sister books (Volumes 2 and 3) of the Handbook of Environmental Engineering (HEE) series have been designed to serve as a mini-series covering agricultural and green biotechnologies. It is expected to be of value to advanced undergraduate and graduate students, to designers of sustainable biological resources systems, and to scientists and researchers. The aim of these books is to provide information on treatment and management of agricultural, pharmaceutical and food wastes and to serve as a basis for advanced study or specialized investigation of the theory and analysis of various integrated environmental control and waste recycle systems. Volume 1 covers topics on: treatment and management of livestock wastes; waste treatment in the pharmaceutical biotechnology industry using green environmental technologies; vermicomposting process for treating agricultural and food wastes; the impacts of climate change on agricultural, food, and public utility industries; innovative PACT activated sludge, CAPTOR activated sludge, activated bio-filter, vertical loop reactor, and PHOSTRIP processes; agricultural waste treatment by water hyacinth aquaculture, wetland aquaculture, evapotranspiration, rapid rate land treatment , slow rate land treatment, and subsurface infiltration; production and applications of crude polyhydroxyalkanoate-containing bioplastic from agricultural and food-processing wastes; optimization processes of biodiesel production from pig and neem seeds blend oil using alternative catalysts from waste biomass; making castor oil a promising source for the production of flavor and fragrance through lipase mediated biotransformation; and waste treatment and minimization in baker's yeast industry.

This proposed book chapter is expected to provide the readers with wide aspects of green technologies for industrial waste remediation. The first chapter is dedicated to the introduction to the title of the book. The chapter discusses various green technologies for industrial waste remediation. After that, the second chapter emphasizes the different types of applications of microorganisms in industrial waste treatment. After that, chapters emphasize the specific area of the title, including the micro and nanofiltration technology for the treatment of industrial wastewater, methods for the recovery and removal of heavy metals from industrial effluents, algal photobioreactor technology for industrial wastewater treatment, carbon capture and energy recovery, bioremediation of radioactive wastes, membrane-based technologies for industrial waste management, valorization of agro-industrial wastes for biorefinery products, bioaccumulation and detoxification of metals through genetically engineered microorganism, application of biochar in waste remediation, constructed wetlands for industrial wastewater remediation, bioelectrochemical treatment of recalcitrant pollutants, microplastics, petrochemicals including BTEX, applications of biosorbents in industrial wastewater treatment, Microbial biofilm reactor for sustainable wastewater treatment, dye adsorption and degradation using microbial consortium, sustainable treatment of endocrine disruptive chemicals released from industries, biological nanomaterials for industrial wastewater management, vermifiltration as a natural, cost-effective and green technology for biomanagement of industrial wastewater, biocatalytic remediation of industrial pollutants, and green treatment of poly aromatic hydrocarbons released from industrial waste. All the chapters cover various aspects of sustainable management of industrial wastes covering relevant literature and data.Further, this book discusses the various advanced techniques/methods adopted for the enhancement of waste management, like the application of nanoparticles. This book discusses other related topics such as algal photobioreactors for carbon dioxide sequestration. Further, chapters are included to discuss about life cycle assessment of the wastewater treatment tools and commercialization aspects.

This book discusses the key problems and solutions with various applicable approaches to combat antibiotic-resistant genes in industrial waste water. Several genes are selected within the chapters to illustrate the past and future roles of molecular ecophysiology and genomics in the development of wastewater microbiology as an important subdiscipline of microbial ecology. As we have very limited knowledge of composition, dynamics and stability of microbial communities, various processes in wastewater treatment have been generally considered to be "black box." In recent years, with the development of several new high throughput sequencing platforms, metagenome sequencing strategies and bioinformatics toolboxes, the analysis of the genome of complex communities has become much more accessible and means easier.The opening of the biological wastewater treatment ¿black box¿ is not the unpleasant experience it was before. The viable, but not cultural, ceases tobe the inconsequential, uncharacterizable enigma that existed today. Metagenomics leads the way for more specific studies in related fields. Finally, genomic studies of wastewater treatment microbes, in addition to their biotechnological applications, are also an excellent testing ground for variety of other ecological and environmental burns questions. Wastewater treatment plants are considered hotspots for the environmental dissemination of antimicrobial-resistant determinants. Comparative genomics of antibiotic resistant genes isolated from conventional activated sludge and biological aerated filter wastewater treatment plants is discussed.

Emerging Innovative Trends in the Application of Biological Processes for Industrial Wastewater Treatment discusses new and emerging innovative trends in the application of biological processes in industrial wastewater treatment. The book also includes the fate of chemicals produced after the treatment process both at the laboratory scale and at the industrial scale, explores the unique biological aspects of the wastewater treatment process, and highlights the advantages they provide for engineering applications in the industries. Each chapter covers a different biological-based approach and examines the basic principles, practical applications, recent breakthroughs, and associated limitations.In addition, it also provides in-depth knowledge on the biological process for application in wastewater research which presents an array of cutting-edge wastewater treatment research and thereafter its applications in treatment, remediation, sensing, and pollution prevention processes which has a significant impact on maintaining the long-term quality, availability, and viability of water.

Microbial Metagenomics in Effluent Treatment Plant introduces a metagenomic approach characterizing microbial communities?in industrial wastewater treatment, providing an overall picture of metagenomics, its application, processes, and future prospects in the field of bioremediation. It also discusses culture-dependent methods, culture-independent methods, and?enzymatic methods?used to estimate bacterial diversity to monitor temporal and spatial changes in bacterial communities. In addition, a metagenomic approach id discussed to characterize the microbial communities in industrial wastewater treatment. Researchers, scientists, professors, and students in environmental engineering, applied microbiology, and water treatment will find this book helpful in understanding the importance and role of metagenomics in biogeochemical cycles, degradation, and detoxification of environmental pollutants.

This book aims at presenting a unified framework for the description of working principles, recent advances and applications of cutting-edge measurement technologies for the water sector. Instrumentation and measurement technologies are currently playing a key role in the monitoring, assessment and protection of environmental resources. Measurement techniques and sensing methods for the observation of water systems are rapidly evolving and are requiring an increased multi-disciplinary participation.The whole water sector is characterised by multiple technological contexts concerning the monitoring of the resource, given the broad coverage that includes water from its natural domains to the men-made infrastructures. In particular, instrumentation and measurement technologies have a pervasive presence in all the necessary aspects for the assessment, monitoring and control of the water resource and of its relationship with the various environmental stressors, including the anthropic pressures.Therefore, the book aims at presenting how the diagnostics/monitoring methodologies and the related technologies can give an answer to the issues raised by the complex scenario characterising the water cycle management (WCM). The book is structured in five topical sections, grouped by similarity of their technological and/or applicative contexts.

This book provides a comprehensive overview of recent developments to valorize fish waste as a source of useful products. In the first few chapters, an introductory section unearths global fish waste production, its detrimental effects and its role in the circular economy. The next section of the book discusses recent applications of fish waste and by-products utilization for the production of useful products such as fertilizers, biogas, biodiesel, fish sauce, enzymes and many more. This book will serve as an important source of recent research developments and applications of fish waste generated at different stages of fish processing. This book will also act as an important reference to the research group conducting research on fish and fish by-product utilization and valorization.

This book discusses selected waste and by-products of the food industry. Two commonly used methods of managing these are discussed: anaerobic digestion and composting. The book reviews current research and also brings in the author¿s own research insights to the discussion. The book is aimed at food industry specialists, waste management specialists, scientists, and students. However, the book describes problems in an accessible way, which will make this book useful for beginners in the waste/biogas/composting sector.

This book describes emerging and established industrial processes of biomining technologies used for the recovery of metals of economic interest from, e.g. mineral ores, mining and electronic wastes using microbiological technologies. Multiple chapters focus on engineering design and operation of biomining systems. Several industrial case studies from China, Chile, Peru, Russia/Kazakhstan and Finland are included, which emphasises the practical approach of the book. The reader not only learns more about the biology, diversity and ecology of microorganisms involved in biomining processes, but also about microbial biomolecular and cultivation tools used in the biomining industry. Special emphasis is put on emerging biotechnologies enabling the use of biomining for recycling metals from e-wastes, waste streams and process waters. Finally, the future impacts and direction of biomining towards sustainability in a metal-demanding world are also highlighted.The book is aimed at an interdisciplinary audience involving operators and researchers working across disciplines including geology, chemical engineering, microbiology and molecular biology. This is reflected by the content of this book, as well as by its authors, who are all leading practitioners and authorities in their fields.

This concise text provides the concepts, methods, and application examples for integrating sustainability into engineering design and production. It discusses the role of sustainability in the value creation processes of various enterprises and different tools and methods for systematic incorporation of social and environmental aspects into the product's life cycle. The following topics are covered: sustainable development in engineering systems and the life cycle concept, norms and standards in the sustainable development and integration of socio-economic assessment into technical valuation, production systems, management of the production systems based on circular economy principles, ecodesign practices, and value creation and innovative design in the circular economy.Provides a concise guide for engineering students for applying circular economy practicesPresents examples and short case studies for understanding the methods and toolsFacilitates understanding and application of the life cycle perspective in product manufacturing and green engineering

This book reports the latest research and successful industrial case studies on sustainable technologies in the oil palm industry, ranging from plantation, processing to waste handling. It covers the latest developments on harvesting, refining, nanomaterial production, aviation biofuel, biomass supply chain and waste treatment and handling. This book is a continuation of a previously published Springer book 'Green Technologies for the Oil Palm Industry' and is intended for industrial practitioners and academics interested in sustainable technologies for palm oil milling processes.

This edited book focuses primarily on biofuel production potential in agricultural waste, such as biogas generation, biohydrogen production, and research trends on managing or converting agricultural waste to biofuel. This book also draws attention to technological equipment, generated biofuels from agricultural waste through various biological and chemical processes, and the multiple factors responsible for biofuels from agricultural waste generation. Agriculture waste can be a renewable source of lignocellulosic feedstock for value-added products. Considering the non-replaceable fossil fuel reservoir, the exponentially growing human population urges an immediate search for alternative renewable energies. To confront the upcoming energy crisis, lignocellulosic agricultural waste is expected to be a sustainable, renewable, low-cost resource to derive bioenergy because of its high availability. This book will be of interest to researchers, scientists, and scholars working on agriculture waste management and biogas production. The book also serves as additional reading material for Industrial professionals, master's and degree students, policymakers, and NGOs working on biofuels and sustainable energy production.

This book puts together all aspects of valorization of vegetable and fruit wastes (VFWs) into different biocommodities and platform chemicals using fermentation and non-fermentation processes. VFWs are a special group of solid waste (biomass) that needs to be characterized to understand the nature of applications as raw materials and to propose an appropriate methodology for bioprocessing into value-added commodities. VFWs provide favorable conditions for the growth of microorganisms, and this opens up great opportunities for their use in fermentation processes. For example, VFWs can be used as a solid support, carbon, and nutrient source in fermentation for the production of a variety of value-added biocommodities such as enzymes, single-cell proteins, bioadsorbents, phenolic bioactive compounds, aroma and flavor compounds, and platform chemicals like lactic acid, bioethanol, and biobutanol. Researchers and academics in the area of environmental science and engineering, chemical engineering, biotechnology, life science, and food science and technology, undergraduate and graduate students, industry professionals, and policymakers will find this publication useful. Bioprocessing of agro-wastes is a recent technology for developing novel bioproducts. This book will also be of interest to the general public as a reference for all those interested in waste management.

This book deals with the general principles, policy instruments, sustainability of supply chain, and business of health-care waste (HCW) management including inputs on exercise in immune health defense against COVID 19. Health-care waste management is very important in any country for protection of environmental and animal and human health. The COVID-19 pandemic, in addition, has augmented this importance to a greater extent. Italy has been successful in curbing the problems related to HCW management during the COVID-19 pandemic at very fast rates from the worst situation, while for a few countries in Asia and Africa, challenges still exist. It is necessary that policy makers, researchers, and implementers gain more knowledge and information on these aspects and improve the strategies and actions. Addressing these issues will reduce the cost of health care as well as resource inefficiency hindering sustainable development goals. This book is of interest and useful to practitioners, capacity builders and policy makers, entrepreneurs, NGOs, and general people, and is a valuable source of reference to the relevant researchers and students in global markets. The book serves as a reading material for undergraduate and graduate students of environmental science, waste management, and medical science. National and international scientists as well as policy makers will also find this to be a useful read. 

This book addresses the growing need for a standard textbook on input-output analysis (IO) within the context of industrial ecology (IE). IE is a discipline dedicated to providing system-wide, quantitative, and science-based solutions for sustainable development challenges, and its global importance has been rapidly increasing. The primary analytical tools of IE are life-cycle assessment (LCA) and material flow analysis (MFA). IO has been widely utilized for LCA since the late 1990s and is increasingly being applied to MFA as well. This trend is being driven by the greater availability and application of global IO data, which now includes an ever-expanding number of countries and regions. Despite the presence of excellent textbooks on IO and IE individually, there is a lack of resources that integrate these two fields. This book seeks to fill that gap by focusing on the practical application of IO to IE, specifically in the context of LCA and MFA. By combining these methodologies, readers can gain valuable insights into sustainable development issues and contribute to more effective solutions in the field of IE.

This book critically evaluates recently investigated feedstock for biofuels production. Biofuel sector is rapidly evolving to cater the renewable energy demands. Novel and advanced feedstock are being investigated for their techno-economic feasibility.  Environmental concerns, food vs fuel debate, energy security, economic feasibility, and availability are the major drivers for exploring different feedstock for biofuel production. This book explores a wide range of potential biofuels feedstock, their functional concepts, recent advancement, novel technique and critical evaluation with other available biofuel feedstock. This book also discusses future prospects of biofuel production. It is a useful read for students, researchers, faculty, industry and policy makers in the biofuel field. 

This book gives an overview of electronic waste (e-waste) management and the latest technological aspects of recycling and disposal of obsolete electronic components while minimizing the environmental impact of toxic chemicals and heavy metals from e-waste. As electronics become more accessible worldwide, this effect generates up to 50 tonnes of e-waste that is only set to increase every year. The chapters in this book explore different strategies through recycling practices, green computing, and eco-friendly approach in handling e-waste through government policies to mitigate the growing side effects of e-waste. This book caters to researchers, policymakers, and industrial practitioners who are interested in more sustainable practices in e-waste management.  

This book aims to offer new scientific concept in the field of water and environment. The main purpose of this book is to exchange some of the latest research findings and educational information on the water and environment in order to take important measures to protect water resources and the environment for future generations in accordance with the principles of sustainable development. The book welcomes all related research and review papers and hopes ICSDWE can positively impact our world and provide a better future for all, including the improvement to the quality of life.

This book presents the integrating of economics and urban geography to create a framework of cooperation around the idea of urban economic stability. It explores these disciplines through the economic lens and creates a collaborative environment for addressing the global challenges caused by the COVID-19 pandemic and future global shocks. Environmental advocates and proponents of economic growth are increasingly at odds¿having looked at the economic impact of the decline of the environment as well as the environmental loss that occurs with unchecked growth and urbanization. The outbreak of the COVID-19 pandemic changed the global scene. The world shook in its foundations, as a number of countries¿ lockdown affected not only the global economy but also society and the environment. The global community has seen the negative impact of COVID-19 on our economies. There have been steep declines in gross domestic product, job losses have been in the millions, and people have seen their incomes fall. An unplanned shutdown has taken its toll and has been a shock to the economies of the world. Past shocks and how they have impacted urban economies as well as for how long are core to bettering our understanding of present and future urban economic change. The underlying economic factors that make a shock more damaging to certain economies or industries, as well as understanding these vulnerabilities, help entities recover from economic shocks and allow them to better understand how impacts on individual businesses can be implemented. The pandemic revealed the need to adopt a global development approach, taking into consideration four dimensions: global value chains, debt, digitalization, and the environment. Topics related to the causation and lockdown are explored through a number of case studies from around the world.

The edited book provides both fundamentals as well as key factors of climate change, extreme events and disaster risk management. It systematically describes the integrated risk of various hydro-meteorological extreme events. The book brings together broad range of topics including basic concepts, exposure, risk, resilience and vulnerability. In addition, it also analysis the impact of various disaster events on bio-diversity, local communities, ecosystem and agricultural food production. The motive is to define remediation strategies in the fields of resilient infrastructures, communication strategies and immediate public participation. The book is presented in four parts, where part 1 familiarizes with fundamentals of hydro-meteorological based disasters; Part 2 focuses on risk and vulnerability analysis; Part 3 focuses on risk remediation options; and part 4 suggests the role of sustainable planning framework on disaster risk management. This volume is of interest and use to professionals and researchers working in climate change, atmospheric sciences and disaster management.

This multi-authored book aims to illustrate the social, economic, and ecological factors that should determine and be determined by design in the implementation of a sustainable circular economy and society. We take design to refer to a continuum of perspectives and applications from industrial design to policy design, and this broad perspective invites theoretical and methodological contributions from a range of fields. In addition to bringing scholarly diversity to circularity, we expand and challenge the mainstream circular economy narrative of material efficiencies and green growth to include the demands of inclusive growth and ecological boundaries consistent with sustainable development. Readers from within and beyond design, conscious of the limitations of circular green growth will find new inspiration in this book regarding the nature of a sustainable circular economy and society and the broad design agenda that must be implemented to enable a just and informed circular transition.