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This book addresses the major policy, economic and financial issues encountered in global forest carbon.The global forest sector is expected to play a major role in achieving the Paris Agreement's temperature targets. Therefore, there is an urgent need to explore practical and promising solutions to the challenges facing carbon accounting and policy assessment as the global community undertakes forest sector actions—including the widely known REDD+ initiative. This book demonstrates how vital it is that we identify appropriate perspectives and formulate approaches to address these challenges in an integrated and effective manner. In doing so, it addresses many of the major issues, including the differential potentials for carbon sequestration within various forest ecosystems as well as for storage within a variety of harvested wood products, the joint production of timber and carbon, and the measurement and impact of forest carbon offsets and credits, results-based payments, and other nationally determined contributions centered differences as well. The book examines regional and country-level case studies from across the world and draws on the author's decades of experience working on forest policy and with the forest sector. Overall, this book highlights the technical and policy issues regarding forest sector carbon emission and removal to build useful perspectives, frameworks, and methods for addressing these issues successfully in the future. It advances the knowledge frontiers of global forest carbon policy, economics and finance as well as the ability to assess the effectiveness, efficiency, and equity of forest climate solutions.This book is essential reading for professionals and policymakers working at the intersection of forest policy, carbon storage and climate change, as well as students and researchers in the fields of forestry, natural resource management, climate change and nature-based solutions.

This book is an insightful introduction to the pressing issues surrounding the climate emergency. The book proposes a set of principles of action, which prioritize technological solutions classified in descending order of carbon density. The book highlights the urgent need to decarbonize industrial sites, as they are the primary sources of carbon emissions. It presents a rational approach to limiting emissions by improving the operational efficiency of industrial processes, electrification, and substitution of fossil fuels with carbon-free energy vectors such as hydrogen or ammonia. The book also describes processes for carbon capture, sequestration in the subsoil, and recovery through industrial products. To demonstrate the application of these principles in difficult-to-decarbonize industrial segments, the book uses the industrial transport industry as an example. It also addresses the decarbonization of individual uses, such as electric cars for individual transport and heat pumps for individual heating. The book concludes by discussing the capture of carbon directly from the atmosphere. It presents a comprehensive view of decarbonization technology, providing readers with a clear understanding of the technological basis required to develop any decarbonization roadmap. The book takes a scientific and engineering approach, trying to avoid any ideological or apocalyptic stance sometimes associated with the topic. The reader is left with a logical and realistic perspective of decarbonization, taking into account scientific and economic logic and orders of magnitude.

Algae Based Bioelectrochemical Systems for Carbon Sequestration, Carbon Storage, Bioremediation and Bioproduct Generation explores the integration of carbon capture, storage and sequestration technologies with bioelectrochemical fuels cells (BEFC), showing how conventional technologies can be renovated to aid in the reduction in GHG emissions and simultaneously optimize BEFC performance. The book focuses on the integration of algal biogas upgradation with electrochemical systems, providing a guide to the renovation of conventional technologies to combine energy production and carbon sequestration. Chapters discuss the latest advancements in carbon sequestration biocatalyst and microbial platforms and integrations for rapid carbon biotransformations. In addition, the book highlights the potential of algae and chemolithotrophs as candidates for carbon delivery, biocatalyst orientation and architecture for optimal BEFC performance. Addresses the modification of carbon materials in the strengthening and application of bioelectrochemical fuel cells Highlights the application of bioelectrochemical systems in carbon sequestration and utilization Discusses the frontiers of carbon storage biocatalysts such as algae and chemlithotrophs Includes content supported by analytical tools and detailed schematics and process diagrams that outline the integration of carbon sequestration with bioelectrochemical systems

Climate change is triggered by a too high concentration of greenhouse gases in the air, carbon dioxide in particular, primarily originating from fossil fuel-burning. Since such burning will not stop any time soon, the concentration will undoubtedly rise further, exacerbating climate change. There is no escape from this. That is where carbon capture comes in: direct air capture (DAC) scrubs the surplus carbon dioxide out of the air for actually lowering this concentration. At the same time emission levels must be drastically lowered by fitting point-source emitters with carbon capture installations. This book sets out the case for such carbon capture, which is a must, without which the climate cannot be repaired.

This book focuses on two issues: the creation of benefits and opportunities for the poverty-stricken people and the trade-off between FCS and poverty alleviation. At the theoretical level, it explains the essential characteristics of PAFCS, analyses the impact mechanism of FCS projects in poverty alleviation, clarifies the stakeholders and their interests and demands, and delineates the dynamic mechanism of FCS projects and poverty alleviation. Based on this theoretical framework, the current situation and challenges for PAFCS in southwest China's ethnic areas are examined in depth. Project performance was quantitatively measured both for projects themselves and for community farmers. The research emphasises that FCS projects in poverty-stricken areas are not the same as PAFCS, highlights the combination of poverty alleviation theory and ecological compensation theory, and considers PAFCS as an intersection of poverty research and ecological compensation research. Additionally, theresearch suggested that FCS projects are not general poverty alleviation projects, highlights the need for full respect to be granted to the subjective will and value judgement of farmers, including poverty-stricken farmers, takes the lead in focusing on the win–win goal of combating climate change and reducing poverty, and makes a breakthrough in researching some key issues that need to be solved in the practice of PAFCS in the ethnic areas of Southwest China. This book is helpful for global scholars in the field of sustainable development, anti-poverty and forest carbon sequestration, government officials, and organisations in developing countries concerned with agricultural development, forestry economy, and sustainable development, as well as all the people around the world who want to find innovative solutions in the climate negotiations.

Agroforestry for Carbon and Ecosystem Management is a comprehensive overview of current research, issues, challenges, and case studies in the area of agroforestry. It focuses specifically on carbon source-sink relationship and management through agroforestry practices with the goal of improving overall environmental sustainability. Through expert insights and case studies, the book promotes carbon management, greenhouse gas emission reduction, forest, and ecosystem services management along with relevant sustainable approaches for natural resources conservation. It provides insight into novel approaches for natural resource management, with specific attention given to technologies related to carbon capture and management. Agroforestry for Carbon and Ecosystem Management also proposes possible polices and plans for future research and implementation, the latest updates in the area of agroforestry research for sustainability, developments in carbon dynamics and management, addresses the knowledge gap in relation to agroforestry, sustainability and agroecosystem management and explores the application of remote sensing and geospatial technology for agroforestry management.Presents the latest insights in agroforestry and ecosystem management to achieve Sustainable Development Goals (SDGS) for a green futureIncludes both theoretical and practical approaches to agroforestry practicesPresents expert insights on the multidisciplinary challenges and opportunities of agroforestry for carbon and other ecological impactsExplores the integration of technological interfaces for improving the potential of agroforestry practices

The greatest challenge facing humanity today is the transition to a more sustainable energy infrastructure while reducing greenhouse gas emissions. Meeting this challenge will require a diversified array of solutions spanning across multiple industries. One of the solutions rising to the fore is the potential to rapidly build out carbon sequestration, which involves the removal of CO2 from the atmosphere and its storage in the subsurface. Integrated Aquifer Characterization and Modeling for Energy Sustainability: Key Lessons from the Petroleum Industry provides a comprehensive and practical technical guide into the potential that aquifers hold as sites for carbon and energy storage.Aquifers occupy a significant part of the Earth's available volume in the subsurface and thus hold immense potential as sites for carbon storage. Many aquifers have been studied extensively as part of oil and gas energy development projects and, as such, they represent an opportunity to sequester carbon within existing areas of infrastructure that have already been impacted by, and integrated into, an inherited energy framework. Moreover, future efforts to reconfigure the landscape of our national and global energy systems can extract valuable lessons from this existing trove of data and expertise.From a multidisciplinary perspective, this book provides a valuable and up-to-date overview of how we can draw on the wealth of existing technologies and data deployed by the petroleum industry in the transition to a more sustainable future. Integrated Aquifer Characterization and Modeling for Energy Sustainability will be of value to academic, professional and business audiences who wish to evaluate the potential underground storage of carbon and/or energy, and for policy makers in developing the right policy tools to further the goals of a sustainable energy transition.

Agricultural Soil Sustainability and Carbon Management presents long-term research in the field of sustainable soil use and management to guide in the prioritizing the multifunctional value of soil health and addressing interdisciplinary links between major issues such as biodiversity and climate change. As soil is the largest terrestrial carbon pool and a significant contributor of greenhouse gases, much progress can be made toward curtailing the climate crisis by sustainable soil management practices. The book provides valuable insight into the soil and carbon management, research gaps, and the methodological challenges for research into soil carbon management that will be important over the decades. Prioritizes the multifunctional value of soil systems and addresses interdisciplinary links within major issues including Soil Health, Carbon Sustainability, Biodiversity and Climate change Provides best management practices and techniques for sustainable carbon management under different cropping pattern/ecosystem Explains the carbon mechanism and application methodology in relation to food production and identifies future areas for research and developments

In the ongoing effort to combat global climate catastrophe, animal agriculture has long been a subject of contention. On the one hand, most agree that across the world increasing meat and dairy consumption are accelerating anthropogenic climate change. On the other hand, proponents of the livestock industry argue that modern advancements reduce greenhouse gas emissions from efficient livestock production to negligible quantities. Some even maintain that grass-based livestock production has a net positive impact on the environment, due to the carbon sequestration caused by grazing. Whom are we to believe? This book shows us that the answer is not so clear-cut. Beginning with the implications of the UN's Livestock's Long Shadow report, it breaks down the blind spots and highlights the insights of the most prominent pro-meat arguments, as well as of the push for a global switch to vegetarianism. While advances in efficiency might reduce greenhouse gas emissions per unit of meat or milk produced, attendant decreases in cost can enable overconsumption and thus produce more waste. And while carbon sequestration is beneficial, it is not a reliable cure-all for the industry. Due to the economics of farming, however, eliminating meat consumption may not even reduce emissions at all. The truth about livestock production is much more nuanced but, luckily, also far more holistic. The future of agricultural policy will have to take into consideration factors such as human health and economics, as well as climate. Eschewing ideology for empirical rigor, this book paves an actionable path forward for both consumers and producers, offering unique solutions for each livestock system and simple, everyday adjustments for the average omnivore.

The change in climatic conditions has resulted in a series of events from the melting of polar ice to the rising of sea levels. This has affected low-lying coastal areas by endangering plants and animals, agriculture and livelihood patterns in general, not to mention causing the outbreak of diseases like dengue, malaria, etc. It is, thus, imperative that mitigation measures to stabilize or reduce the concentration of carbon dioxide is brought about. A key step is the bio-fixation of carbon from the atmosphere.This book attempts to bring forth the role of vegetation in carbon sequestration. The introductory chapters of the book deal with the understanding of the physical attributes governing climate on earth, historical account of climate change, impacts of climate change on different environs and eco-strategies to combat climate change. Detailed account of mechanism of carbon sources and sinks, carbon credits and REDD+ are also discussed. A sizeable portion of the book is dedicated to the climate change and phonological variability, clean development mechanism and economic stability through natural resource management. Academicians, researchers, policy makers and environmental stakeholders will find it a useful and comprehensive guide in the floristic and arboreal potential to sequester carbon dioxide and will suffice the diverse needs of teaching and research.

Volume 2 of Advances in Carbon Management Technologies has 21 chapters. It presents the introductory chapter again, for framing the challenges that confront the proposed solutions discussed in this volume. Section 4 presents various ways biomass and biomass wastes can be manipulated to provide a low-carbon footprint of the generation of power, heat and co-products, and of recovery and reuse of biomass wastes for beneficial purposes. Section 5 provides potential carbon management solutions in urban and manufacturing environments. This section also provides state-of the-art of battery technologies for the transportation sector. The chapters in section 6 deals with electricity and the grid, and how decarbonization can be practiced in the electricity sector.The overall topic of advances in carbon management is too broad to be covered in a book of this size. It was not intended to cover every possible aspect that is relevant to the topic. Attempts were made, however, to highlight the most important issues of decarbonization from technological viewpoints. Over the years carbon intensity of products and processes has decreased, but the proportion of energy derived from fossil fuels has been stubornly stuck at about 80%. This has occurred despite very rapid development of renewable fuels, because at the same time the use of fossil fuels has also increased. Thus, the challenges are truly daunting. It is hoped that the technology choices provided here will show the myriad ways that solutions will evolve. While policy decisions are the driving forces for technology development, the book was not designed to cover policy solutions.

The book comprises state-of-the-art scientific reviews on carbon management strategies in response to climate change. It provides in-depth information on topics relating to recent advances in carbon capture technology and its reuse in value added products. It features contributions of leading scientists and technocrats on topics including climate change and carbon sequestration, lowering carbon footprint CO2 capture, low carbon imperatives in oil industry, CO2 as refrigerant in cold-chain application, carbonic anhydrase-mediated carbon sequestration and utilization, chemical looping combustion with Indian coal, CO2 conversion to chemicals, algae based biofuels, and carbon capture patent landscaping analysis. The contents of this book will be helpful for research scholars, post-graduate students, industry, agricultural scientists and policy makers/planners.

Advances in Carbon Management Technologiescomprises 43 chapters contributed by experts from all over the world. Volume 1 of the book, containing 23 chapters, discusses the status of technologies capable of yielding substantial reduction of carbon dioxide emissions from major combustion sources. Such technologies include renewable energy sources that can replace fossil fuels and technologies to capture CO2 after fossil fuel combustion or directly from the atmosphere, with subsequent permanent long-term storage. The introductory chapter emphasizes the gravity of the issues related to greenhouse gas emissionglobal temperature correlation, the state of the art of key technologies and the necessary emission reductions needed to meet international warming targets. Section 1 deals with global challenges associated with key fossil fuel mitigation technologies, including removing CO2 from the atmosphere, and emission measurements. Section 2 presents technological choices for coal, petroleum, and natural gas for the purpose of reducing carbon footprints associated with the utilization of such fuels. Section 3 deals with promising contributions of alternatives to fossil fuels, such as hydropower, nuclear, solar photovoltaics, and wind.Chapter 19 of this book is freely available as a downloadable Open Access PDF at http://www.taylorfrancis.com under a Creative Commons Attribution-Non Commercial-No Derivatives (CC-BY-NC-ND) 4.0 license.

Advances in Carbon Capture reviews major implementations of CO2 capture, including absorption, adsorption, permeation and biological techniques. For each approach, key benefits and drawbacks of separation methods and technologies, perspectives on CO2 reuse and conversion, and pathways for future CO2 capture research are explored in depth. The work presents a comprehensive comparison of capture technologies. In addition, the alternatives for CO2 separation from various feeds are investigated based on process economics, flexibility, industrial aspects, purification level and environmental viewpoints. Explores key CO2 separation and compare technologies in terms of provable advantages and limitations Analyzes all critical CO2 capture methods in tandem with related technologies Introduces a panorama of various applications of CO2 capture

This book presents a comprehensive and innovative understanding of the role of shallow coastal ecosystems in carbon cycling, particularly marine carbon sequestration. Incorporating a series of forward-looking chapters, the book combines thorough reviews of the global literature and regional assessments—mainly around the Indo-Pacific region and Japan—with global perspectives to provide a thorough assessment of carbon cycling in shallow coastal systems. It advocates the expansion of blue-carbon ecosystems (mangroves, seagrass meadows, and salt marshes) into macroalgal beds, tidal flats, coral reefs, and urbanized shallow waters, demonstrating the potential of these ecosystems as new carbon sinks. Moreover, it discusses not only topics that are currently the focus of blue-carbon studies, i.e., sedimentary carbon stock and accumulation rate, but also CO2 gas exchange between the atmosphere and shallow coastal ecosystems, carbon storage in the water column as refractory organic carbon, and off-site carbon storage. Including highly original contributions, this comprehensive work inspires research beyond the specific regions covered by the chapters. The suite of new concepts and approaches is refreshing and demonstrates that blue-carbon research is indeed a vibrant new field of research, providing deep insights into neglected aspects of carbon cycling in the marine environment. At the same time the book provides guidance for policy makers to deliver benefits to society, for example the inclusion of blue carbon as a carbon offset scheme or the Nationally Determined Contribution (NDC) in the Paris Agreement, and also for building resilience in coastal socio-ecosystems through better management. This book is intended for all those interested in the science and management of coastal ecosystems.

Key features:Captures the historic context and recent developments in science and policy arenas that address the potential for coastal wetlands to be considered as significant contributors to carbon sequestrationLinks multiple levels of science (biogeochemistry, geomorphology, paleoclimate, etc.) with blue carbon concepts (science, policy, mapping, operationalization, economics) in a single compendiumConcludes with a discussion of future directions which covers integrated scientific approaches, impending threats and specific gaps in current knowledgeIncludes 7 case studies from across the globe that demonstrate the benefits and challenges of blue carbon accountingWritten by over 100 leading global blue carbon experts in science and policy.Blue Carbon has emerged as a term that represents the distinctive carbon stocks and fluxes into or out of coastal wetlands such as marshes, mangroves, and seagrasses. The Blue Carbon concept has rapidly developed in science literature and is highly relevant politically, as nations and markets are developing blue carbon monitoring and management tools and policies. This book is a comprehensive and current compendium of the state of the science, the state of maps and mapping protocols, and the state of policy incentives (including economic valuation of blue carbon), with additional sections on operationalizing blue carbon projects and 7 case studies with global relevance.

This work summarizes the science and management of a rapidly expanding topic in climate science, namely adaptation and mitigation. The term'blue carbon'refers to the rates, pathways and volumes of greenhouse carbon sequestered in coastal estuarine and marine ecosystems such as salt marshes, mangroves and seagrass meadows. Blue carbon and its vital role in climate change mitigation are central to this book.Readers find summaries and analysis of both the basic scientific data and data from blue carbon field projects, and a practical guide on how to manage a successful blue carbon field project. There is a discussion on how to maximize the carbon sequestration and consideration of whether blue carbon projects make a difference.The work is not only of interest to scholars involved in climate science, but also those in the marine sciences, and those in ecosystem ecology, biogeochemistry; geochemistry; estuarine and marine plant ecology.

Soil Carbon Storage: Modulators, Mechanisms and Modeling takes a novel approach to the issue of soil carbon storage by considering soil C sequestration as a function of the interaction between biotic (e.g. microbes and plants) and abiotic (climate, soil types, management practices) modulators as a key driver of soil C. These modulators are central to C balance through their processing of C from both plant inputs and native soil organic matter. This book considers this concept in the light of state-of-the-art methodologies that elucidate these interactions and increase our understanding of a vitally important, but poorly characterized component of the global C cycle. The book provides soil scientists with a comprehensive, mechanistic, quantitative and predictive understanding of soil carbon storage. It presents a new framework that can be included in predictive models and management practices for better prediction and enhanced C storage in soils. Identifies management practices to enhance storage of soil C under different agro-ecosystems, soil types and climatic conditions Provides novel conceptual frameworks of biotic (especially microbial) and abiotic data to improve prediction of simulation model at plot to global scale Advances the conceptual framework needed to support robust predictive models and sustainable land management practices

This book provides in-depth information on topics relating to anthropogenic carbon dioxide utilization processes. Presenting a collection of state-of-the-art scientific reviews and research perspectives on carbon management strategies of relevance to the energy industry, it features contributions by leading scientists and technocrats across 19 chapters as an Indian contribution In the energy industry, new processes for carbon dioxide removal and recycling are developing quickly, and it is in this context that the book provides an opportunity to review the current status of and promote efforts to achieve effective carbon capture and management. The contents presented here will prove useful to researchers, students, industry experts, scientists and policymakers alike.

This book provides an understanding of the role of human activities in accelerating change in global carbon cycling summarizes current knowledge of the contemporary carbon budget. Starting from the geological history, this volume follows a multidisciplinary approach to analyze the role of human activities in perturbing carbon cycling by quantifying changes in different reservoirs and fluxes of carbon with emphasis on the anthropogenic activities, especially after the industrial revolution. It covers the role of different mitigation options – natural ecological, engineered, and geoengineered processes as well as the emerging field of climate engineering in avoiding dangerous abrupt climate change. Although the targeted audience is the educators, students, researchers and scientific community, the simplified analysis and synthesis of current and up to date scientific literature makes the volume easier to understand and a tool policy makers can use to make an informed policy decisions.

A theoretical and practical analysis of the complex liability issues raised by carbon capture and storage systems for containing greenhouse gases.Carbon capture and storage (CCS) systems inject highly compressed carbon dioxide gas deep into geological formations in order to contain the gas, and its harmful effects on the planet, for the foreseeable future and beyond—for centuries or even millennia. Used effectively, CCS could lessen the impact of climate change while carbon-free energy sources are developed. And yet CCS is not widely deployed. In this book, Michael Faure and Roy Partain offer a theoretical and practical discussion of one of the main obstacles to CCS adoption: complex liability and compensation issues. Faure and Partain point out that current liability rules are unclear in their application to CCS. Causation is complicated, and the timeline of hundreds of years goes beyond the lifetimes of people or corporations. Examining the subject from legal and economic perspectives, they consider whether rules of civil liability can govern CCS risk; how a liability system might address the open-ended timeline; what role public and private regulatory measures could play; and whether compensation should be provided from public or private resources. They investigate the utility of different forms of insurance and of such financial tools as guarantees, deposits, and catastrophe bonds. They offer not only a rigorous framework for assessing policy but also a summary of policy recommendations they develop from their findings.

Carbon capture and storage (CCS) and'negative emissions'technologies will play an essential role in mitigating the impact of global warming and meeting the temperature targets set by the IPCC and by COP21. Identifying the role and value of CCS relative to other mitigation technologies is of vital importance. This book provides a comprehensive, up-to-date overview of the major sources of carbon dioxide emission, capture and storage, as well as negative emissions technologies, and provides insight into the role and value of CCS in the industrial and power sectors. The issues associated with commercial deployment of CCS are discussed, providing potential approaches to overcome these hurdles through a combination of political, economic and R&D strategies. Carbon Capture and Storage provides the latest global perspective on the role and value of CCS in delivering temperature targets and reducing the impact of global warming. With contributions from internationally recognised leaders, this book will appeal to graduate students and researchers in academia and industry, working in chemical engineering, mechanical engineering, and energy policy.

The ever increasing emission of carbon dioxide due to rapid industrialization, urbanization, unplanned tourism and alteration of land use pattern is causing unprecedented changes to marine biodiversity. Irrespective of political philosophy, nation, caste, sex and religion, mankind is under the appalling shadow of climate change. Today nature-based approaches for the mitigation of climate change are increasingly accepted as part of the low-cost solution. Thrust has been given by several scientific communities to assess the magnitude and viability of carbon sequestering potential of plants. Coastal producer communities like mangroves, salt marsh grass, seagrass beds, and seaweeds absorb atmospheric carbon dioxide during the process of photosynthesis. This carbon known as the ‘blue carbon'is thus associated with the marine and estuarine ecosystems. However, a number of gaps in our scientific knowledge on blue carbon domain still exist. Molluscs, coral reefs, phytoplankton, which are amongst the important storehouses of carbon, have not been addressed. Very few scientific studies on the carbon stored in these valuable natural vaults have been performed, and no data bank is available on their carbon sequestering capacity on global basis. The methodologies for assessing blue carbon stock also need further standardization so that credit from blue carbon reservoir is accepted by the International bodies in the form of a concrete policy. It is a matter of great appreciation that Conservation International (CI), the International Union for Conservation of Natural Resources (IUCN), and the Intergovernmental Oceanic Commission (IOC) of UNESCO is collaborating with governments, research institutions, non-governmental and international organizations, and communities around the world to develop management approaches, financial incentives and policy mechanisms for ensuring conservation and restoration of blue carbon ecosystems and implement projects around the world that demonstrate the feasibility of blue carbon accounting, management, and incentive agreements. The present book has critically presented the data bank for each community of blue carbon not merely in the form of text description, but also through case studies that are the outcomes of research projects and pilot programmes.

Water is the driving force of all nature. This old quote from Leonardo da Vinci reminds us that without water life is simply not possible. As a consequence, water is probably the most important wealth for humanity. In spite of this, drinking water is still polluted by man-made toxicals gathered by waters in soils and the atmosphere. This book presents advanced methods to clean water and air. Chapters also focus on biofuels, greenhouse gases and genetically modified crops.

Carbon capture and storage is one of the main carbon emissions policy issues globally, yet you may know little about it if you're outside the academic community. As the global push to address the impact that carbon emissions has on global warming continues, awareness and knowledge of viable solutions must be communicated in layperson terms. Returning Coal and Carbon To Nature breaks across traditional barriers among history, geology, biology and climate change to address the topic from a multidisciplinary, Earth System Science approach. If you're a policymakeror someone who influences policy, this book will explain carbon capture and storage—a relatively new concept—in easy-to-understand terms. Clearly presented charts, tables and diagrams explain critical concepts, and a range of full-color photographs will help you visualize the carbon capture and storage process and its principles. Discusses carbon capture and storage in terms easily accessible to a range of stakeholders, including policymakers worldwide and geoscientists who influence policy. The first cross-disciplinary look at the history, geology and biology of coal, and presents carbon capture and storage in the context of Earth System Science. Authored by one of the world's foremost carbon capture and storage experts who has more than 30 years of field research experience.

This book's primary content explores plantation and non-plantation biodiversity values, mushrooms and woodlands, the roles of arbuscular mycorrhizal in tropical forestry and agro-forestry, the impacts on the abundance and diversity of soil legume-nodulating rhizobia and arbuscular mycorrhizal fungal communities in semiarid regional plantations. The book also investigates carbon biosequestration and bioenergy options of plantations, lessons from plantation forestry carbon sequestration, and carbon sequestration in agro forestry-block plantations or mangrove plantations. The book includes targeted chapters on forest restoration and management of plantations for restoring degraded landscapes, alluvial-gold-mining soil reclamation using Acacia mangium plantations, effects of forest practices on wild populations of Testudo hermanni, effects of the incorporation of native species biomass in an acidic andisol to control water contamination from plant residues, and ecohydrology of Amazonian rain forest ecosystems. The international list of authors were carefully selected, and through a rigorous peer review process, this edited book aims to fill some of the information gaps in vegetation restoration and nutrient mobilization, particularly in under researched plantation ecosystems around the world. Our intended audience includes planners of projects to restore and manage forests or plantations; practitioners who implement those plans; forest resource managers who oversee the sites; forestry consultants; tree farms; environmental authorities; conservationists and students of forestry. We also hope that researchers and the public can find valued information for their future use and efforts. We hope that our work can bring scientists and policy-makers together to envision a sustainable future for woodlands'health and productivity management.

Ecological functions and human wellbeing depend on ecosystem services. Among the ecosystem services are provisional (food, feed, fuel, fiber), regulating (carbon sequestration, waste recycling, water cleansing), cultural (aesthetic, recreational, spiritual), and supporting services (soil formation, photosynthesis, nutrient cycling). Many relationships of various degree exist among ecosystem services. Thus, land use and soil management to enhance biospheric carbon sinks for carbon sequestration requires a comprehensive understanding on the effects on ecosystem services. Payments for ecosystem services including carbon pricing must address the relationship between carbon sequestration and ecosystem services to minimize risks of overshoot, and promote sustainable use of land-based carbon sinks for human wellbeing.

This compilation of techniques, methodologies and scientific data arises from a four-year Italian research project, which took place at university research stations in Turin, Piacenza, Naples and Potenza. Soil Organic Matter (SOM) represents an active and essential pool of the total organic carbon on the planet. Consequently, even small changes in this SOM carbon pool may have a significant impact on the concentration of atmospheric CO2. Recent new understanding of the chemical nature of SOM indicates that innovative and sustainable technologies may be applied to sequester carbon in agricultural soils. Overall results of the project have been applied to develop an innovative model for the prediction and description, both quantitatively and qualitatively, of carbon sequestration in agricultural soils. This book provides experts in different areas of soil science with a complete picture of the effects of new soil management methods and their potentials for practicalapplication in farm management.

The aim of this book is to provide an accessible overview for advanced students, resource professionals such as land managers, and policy makers to acquaint themselves with the established science, management practices and policies that facilitate sequestration and allow for the storage of carbon in forests. The book has value to the reader to better understand: a) carbon science and management of forests and wood products; b) the underlying social mechanisms of deforestation; and c) the policy options in order to formulate a cohesive strategy for implementing forest carbon projects and ultimately reducing emissions from forest land use.

Carbon Sequestration in Forest Ecosystems is a comprehensive book describing the basic processes of carbon dynamics in forest ecosystems, their contribution to carbon sequestration and implications for mitigating abrupt climate change. This book provides the information on processes, factors and causes influencing carbon sequestration in forest ecosystems. Drawing upon most up-to-date references, this book summarizes the current understanding of carbon sequestration processes in forest ecosystems while identifying knowledge gaps for future research, Thus, this book is a valuable knowledge source for students, scientists, forest managers and policy makers.

Carbon dioxide capture and storage (CCS) is a technology aimed at reducing greenhouse gas emissions from burning fossil fuels during industrial and energy-related processes. CCS involves the capture, transport and long-term storage of carbon dioxide, usually in geological reservoirs deep underground that would otherwise be released to the atmosphere. Carbon dioxide capture and storage offers important possibilities for making further use of fossil fuels more compatible with climate change mitigation policies. The largest volumes of CO2 could be captured from large point sources such as from power generation, which alone accounts for about 40 per cent of total anthropogenic CO2 emissions. The development of capture technologies in the power generation sector could be particularly important in view of the projected increase in demand for electricity in fast developing countries with enormous coal reserves (IEA 2002a). Although, this prospect is promising, more research is needed to overcome several hurdles such as important costs of capture technology and the match of large capture sources with adequate geological storage sites. The book will provide a comprehensive, detailed but non-specialist overview of the wide range of technologies involved in carbon dioxide capture and sequestration. Focuses on technology rather than regulation and cost Covers both traditional and cutting edge capture technology Contains an abundance of case-studies an worked out examples Insight into CSS technical processes

How the dirt below our feet can save us from extinction. Conventional agriculture destroys our soils, pollutes our water and is a major contributor to climate change. What if our agricultural practices could stabilize, or even reverse these trends? The Biochar Solution explores the dual function of biochar as a carbon-negative energy source and a potent soil-builder. Created by burning biomass in the absence of oxygen, this material has the unique ability to hold carbon back from the atmosphere while simultaneously enhancing soil fertility. Author Albert Bates traces the evolution of this extraordinary substance from the ancient black soils of the Amazon to its reappearance as a modern carbon sequestration strategy. Combining practical techniques for the production and use of biochar with an overview of the development and future of carbon farming, The Biochar Solution describes how a new agricultural revolution can reduce net greenhouse gas emissions to below zero while increasing world food reserves and creating energy from biomass wastes. Biochar and carbon farming can: Reduce fossil fuels inputs into our food system Bring new life to desert landscapes Filter and purify drinking water Help build carbon-negative homes, communities and nations. Biochar is not without dangers if unregulated, and it is not a panacea, but if it fulfills its promise of taking us back from the brink of irreversible climate change, it may well be the most important discovery in human history.

Carbon Capture and Storage (CCS) is the only method available for reducing CO2 emissions while allowing continued use of fossil fuels, both for power generation and potentially in broader contexts. Carbon capture technologies are already playing a role in reducing emissions from large sources such as power stations. Carbon capture could potentially tackle these emissions, either by use of photosynthetic organisms to fix carbon, providing a biomass energy source or by direct capture from the air. Various potential options are available for carbon storage, including geological, mineral and ocean storage. This book describes the current options available and discusses the potential for future CCS strategies.

Soils comprise the largest pool of terrestrial carbon and therefore are an important component of carbon storage in the biosphere-atmosphere system. Structure and Organic Matter Storage in Agricultural Soils explores the mechanisms and processes involved in the storage and sequestration of carbon in soils. Focusing on agricultural soils - from tropical to semi-arid types - this new book provides an in-depth look at structure, aggregation, and organic matter retention in world soils. The first two sections of the book introduce readers to the basic issues and scientific concepts, including soil structure, underlying mechanisms and processes, and the importance of agroecosystems as carbon regulators. The third section provides detailed discussions of soil aggregation and organic matter storage under various climates, soil types, and soil management practices. The fourth section addresses current strategies for enhancing organic matter storage in soil, modelling techniques, and measurement methods.Throughout the book, the importance of the soil structure-organic matter storage relationship is emphasized. Anyone involved in soil science, agriculture, agronomy, plant science, or greenhouse gas and global change studies should understand this relationship. Structure and Organic Matter Storage in Agricultural Soils provides an ideal source of information not only on the soil structure-storage relationship itself, but also on key research efforts and direct applications related to the storage of organic matter in agricultural soils.

Since the 1992 Earth Summit, there have been increased efforts on an international scale to address global climate change. Reducing the increased levels of CO2 and other'greenhouse gases,'which are believed to be contributing to this climatic change, will require major effort on the part of the world's governments. This means that the environmental, economic, social, and political consequences of climate change must be understood, and that strategies to mitigate climate change must also address these issues.The workshop detailed in this book concentrated on how economic principles and analysis could contribute to the planning of forestry projects aimed at affecting terrestrial carbon balances. More than 30 international scientists came together for one week near Stockholm, Sweden and divided into working groups charged with addressing a specific issue and preparing a paper within this time frame. This book contains the majority of papers presented at this meeting, and includes both the working group papers and the individually presented papers.