Partial contents: Monitoring and Evaluating the Water Cycle; Linking Climate Change with Water Cycle Management; Parsimonious vs Complicated Approaches; Whole-of- System and Adaptative Approaches; Need for Transdisciplinary Issues Approaches to Deal with Water Related Ecosystems; Integrated Approaches; Role of Knowledge Platforms for Community Engagement; From Artificial to Embodied Intelligence; Water Allocation Dilemma; Water Quality a Critical Issue; Managing Hydrohazards.
Complex water problems cannot be resolved by numbers or narratives. Contingent and negotiated approaches are necessary for actionable outcome. In the face of a constantly changing array of interconnected water issues that cross multiple boundaries, the challenge is how to translate solutions that emerge from science and technology into the context of real-world policy and politics. Water Diplomacy in Action addresses this task by synthesizing two emerging ideas––complexity science and negotiation theory––to understand and manage risks and opportunities for an uncertain water future. Rooted in the ideas of complexity science and mutual gains negotiation, this edited volume shows why traditional systems engineering approaches may not work for complex problems, what emerging tools and techniques are needed and how these are used to resolve complex water problems.
50 Trade Secrets of Great Design: Packaging looks behind the scenes at fifty commercial product package designs, revealing how designers work with clients from concept to completion. A wealth of working drawings, computer visuals, thumbnail sketches, and color photographs demonstrate the formation of each concept and how the final design was executed.
This book offers the first comprehensive treatment of multi-level water governance, developing a conceptual and analytical framework that captures the complexity of real water governance systems while also introducing different approaches to comparative analysis. Applications illustrate how the ostensibly conflicting goals of deriving general principles and of taking context-specific factors into account can be reconciled. Specific emphasis is given to governance reform, adaptive and transformative capacity and multi-level societal learning. The sustainable management of global water resources is one of the most pressing environmental challenges of the 21st century. Many problems and barriers to improvement can be attributed to failures in governance rather than the resource base itself. At the same time our understanding of complex water governance systems largely remains limited and fragmented. The book offers an invaluable resource for all researchers working on water governance topics and for practitioners dealing with water governance challenges alike.
In 2018, the city of Cape Town faced the prospect of reaching ‘day zero’, that is a combination of natural and human-made factors leading to the complete collapse of its municipal water supply. While the rains eventually fell and a major disaster was averted, the fear of running out of water looms large in the psyche of residents in many cities around the world. Water is a non-substitutable, essential, finite and fugitive resource. It is the lifeblood of human endeavour. Cities, through global processes such as Agenda 2030 and forums such as ICLEI exchange best practices for achieving water security. These forums also are collective social spaces occupied by civil society organizations who share strategies and tactics, and the private sector, who compete for markets and contracts, promoting patent-protected technologies. It is these groups – states, civil societies, private sectors – coming together who determine who gets what water, when, and where. It is the job of academics to understand the how and why, and of (academic-)activists to fight for equity of access and sustainability of use. Evidence drawn from around the world and over time consistently shows that water flows toward money and power. Outcomes are too-often socially inequitable, environmentally unsustainable and economically inefficient. How to shift existing processes toward improved practices is not clear, but positive outcomes do exist. In this collection, we compare and contrast the challenges and opportunities for achieving urban water security with a focus on 11 major world cities: Bangalore, Beijing, Cairo, Cape Town, Chennai, Istanbul, Jakarta, London, Melbourne, Sao Paulo and Tokyo. Through the theoretical, conceptual and practical insights provided in these case studies, our collection constructively contributes to a global conversation regarding the ways and means of ‘avoiding day zero’.
This book provides an introduction to the scientific fundamentals of groundwater and geothermal systems. In a simple and didactic manner the different water and energy problems existing in deformable porous rocks are explained as well as the corresponding theories and the mathematical and numerical tools that lead to modeling and solving them. This approach provides the reader with a thorough understanding of the basic physical laws of thermoporoelastic rocks, the partial differential equations representing these laws and the principal numerical methods, which allow finding approximate solutions of the corresponding mathematical models. The book also presents the form in which specific useful models can be generated and solved. The text is introductory in the sense that it explains basic themes of the systems mentioned in three areas: engineering, physics and mathematics. All the laws and equations introduced in this book are formulated carefully based on fundamental physical principles. This way, the reader will understand the key importance of mathematics applied to all the subjects. Simple models are emphasized and solved with numerous examples. For more sophisticated and advanced models the numerical techniques are described and developed carefully. This book will serve as a synoptic compendium of the fundamentals of fluid, solute and heat transport, applicable to all types of subsurface systems, ranging from shallow aquifers down to deep geothermal reservoirs. The book will prove to be a useful textbook to senior undergraduate and graduate students, postgraduates, professional geologists and geophysicists, engineers, mathematicians and others working in the vital areas of groundwater and geothermal resources.
The population of cities around the world is growing at an alarming rate, and as a result the landscapes of most cities are going through enormous changes. In particular, fertile agricultural lands at the periphery of cities are being developed without consideration of holistic planning. As such, peri-urban areas, zones of transition from rural to urban land uses located between the outer limits of the urban and the rural environment are experiencing significant losses of agricultural land, increased runoff, and water quality degradation. Concurrently, the demands for water, food and energy are increasing within cities, and unless a balance is struck the liveability of these cities will soon be compromised. The current water and land use changes have serious consequences on lifestyle, environment, health and overall well-being of urban communities. This book therefore helps readers to understand the current issues and challenges and examines suitable strategies and practices to cope with current and future pressures of urbanisation and peri-urban land-use changes. The book examines a number of critical aspects in relation to the future of cities and peri-urban regions, including the suitability of policies and institutions to sustain cities into the future; impact of current trends in land use change, population increase and water demand; long term planning needs and approaches to ensure the secured future for generations ahead; and strategies to adapt the cities and land uses so that they remain viable and liveable. The readership of the book will include policy makers, urban planners, researchers, post-graduate students in urban planning and environmental and water resources management and managers in municipal councils.
Worldwide development of agriculture and industry creates burgeoning demands on natural resources. Management of the rivers and the surrounding landscape is one of the important tasks for today and for the foreseeable future. Lessons learned from centuries of management (and mismanagement) have been distilled into principles and practices which for
