Efficient Carbon Capture for Coal Power Plants
(Sprache: Englisch)
Environmental Impact: Carbon Capture and Storage is one of the main energy technologies for achieving a low carbon economy.
Sustainablility: CCS from coal-fired power plants, aims to achieve secure, cost-effective and feasible technologies for an...
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Environmental Impact: Carbon Capture and Storage is one of the main energy technologies for achieving a low carbon economy.
Sustainablility: CCS from coal-fired power plants, aims to achieve secure, cost-effective and feasible technologies for an almost complete elimination of carbon dioxide emissions.
Klappentext zu „Efficient Carbon Capture for Coal Power Plants “
Carbon Capture and Storage is a key technology for a sustainable and low carbon economy. This book unites top academic and industry researchers in search for commercial concepts for CCS at coal power ploants. This reference focuses on power plant technology and ways to improve efficiency.It details the three principal ways of capturing the CO2 produced in power plants: oxyfuel combustion, postcombustion and precombustion, with the main part concentrating on the different approaches to removing carbon dioxide. Wtih an eye on safety, the authors explain how the three parts of the CCS chain work - capture, transport and storage - and how they can be performed safely.The result is specific insights for process engineers, chemists, physicists and materials engineers in their relevant fields, as well as a sufficiently broad scope to be able to understand the opportunities and implications of the other disciples.
Inhaltsverzeichnis zu „Efficient Carbon Capture for Coal Power Plants “
PrefacePART I: Introduction and OverviewTHE CASE FOR CARBON CAPTURE AND STORAGEIntroductionDilution versus TreatmentCarbon ReservoirsExcell CarbonThe Scale of Carbon Capture and StorageStorage Capacity RequirementsConclusionADVANCED POWER PLANT TECHNOLOGYIntroductionHistory of the Development of Power Plants - Corellation Beween Unit Size, Availability, and EfficiencyPossibilities for Efficiency Increases in the Development of a Steam Power PlantCAPTURE OPTIONS FOR COAL POWER PLANTSIntroductionRequirements on CO2 Capture and CompressionCO2 Capture RoutesGas Separation Tasks and MethodsPlant Concepts for Carbon CaptureCarbon Dioxide CompressionConclusionLIFE CYCLE ASSESSMENT FOR POWER PLANTS WITH CCSIntroductionLife Cycle Assessment as an Assessment MethodReview of Life Cycle Assessments Along the Whole CCS ChainResultsConstraints of LCA Regarding an Assessment of CCSComparison of Electricity from CCS and from Renewable EnergiesConclusion on Needs for ActionPART II: CO2 ScrubbingPHYSICS AND CHEMISTRY OF ABSORPTION FOR CO2 CAPTURE TO COAL POWER PLANTSGas Separation for CO2 CaptureProcess Engineering and PerformancePhysical AbsorptionChemical AbsorptionPhysical PropertiesOutlookCHEMICAL ABSORPTION MATERIALS FOR CO2 CAPTUREIntroductionAlkanolaminesSodium and Potassium CarbonatesAmmoniaAmino Acid SaltsIonic LiquidsConclusionPHYSICAL ABSORPTION MATERIALS FOR CO2 CAPTUREIntroductionPre-Combustion Capture in IGCCPhysical Absorption Materials and ProcessesConclusions and OutlookCO2 REMOVAL IN COAL POWER PLANTS VIA POST-COMBUSTION WITH ABSORBENTSTail-End CO2 CaptureDemonstration Plants and Pilot PlantsConclusionCO2 REMOVAL IN COAL POWER PLANTS VIA PRE-COMBUSTION WITH PHYSICAL ABSORBTIONIntroductionThe Sorption-Enhanced Water Gas Shift ProcessSorption Processes and Material Development for SEWGSConclusion and OutlookPART III: CO2 Removal with Cryogenic Air SeparationCO2 CAPTURE VIA THE OXYFUEL PROCESS WITH CRYOGENIC AIR SEPARATIONIntroductionFlue Gas RecycleCombustionCO2
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Purification and CaptureEfficiencyCurrent DevelopmentsPART IV: Separation with MembranesPHYSICS OF MEMBRANE SEPARATION OF CO2IntroductionMacroscopic Mass TransportPermeation Through MaterialsMembrane Geometries and MorphologiesFluid Dynamics and ModulesProcess DesignConclusionINORGANIC MEMBRANES FOR CO2 SEPARATIONIntroductionMembranes for Gas SeparationConclusion and OutlookPOLYMER MEMBRANES FOR CO2 SEPARATIONIntroductionPolymer Membranes for CO2 CaptureTheoretical Gas and Vapor Transport Through Dense Polymer MembranesGas and Vapor Transport Through Dense Polymer Membranes for Flue Gas TreatmentConclusionCO2 SEPARATION VIA THE POST-COMBUSTION PROCESS WITH MEMBRANES IN COAL POWER PLANTSIntroductionProcess Boundary ConditionsMembranes and Membrane ModelingMembrane ProcessesEconomics of Membrane Processes for CO2 CaptureSummary and ConclusionsCO2 SEPARATION VIA THE OXYFUEL PROCESS WITH O2-TRANSPORT MEMBRANES IN COAL POWER PLANTSIntroductionMIEC Membrane Operating ConceptsHard Coal Membrane-Based Oxyfuel ProcessLiterature Review of Membrane-Based Oxyfuel ProcessesTowards Realization - Module DesignConclusionCO2 SEPARATION VIA PRE-COMBUSTION UTILIZING MEMBRANES IN COAL POWER PLANTSIntroductionProcess Conditions, Membrane Characteristics, Classification Numbers, Permeation Laws, and Water Gas ShiftPre-Combustion Concepts with Scrubbing TechnologiesPre-Combustion Concepts with CO2-Selective MembranesPre-Combustion Concepts with H2-Selective MembranesConclusionPART V: Chemical Looping for CO2-SeparationCHEMICAL LOOPING MATERIALS FOR CO2 SEPARATIONIntroductionChemical Looping Combustion of Solid FuelsChemical Looping with Oxygen Uncoupling (CLOU)Chemical Looping ReformingChemical Looping Gasification of Solid FuelsOxygen Carrier DevelopmentReactor Design and Operational Experience in Chemical Looping CombustorsReactivity and Solids InventoryConclusionCHEMICAL LOOPING IN POWER PLANTSIntroductionChemical Looping CombustionCarbonate Looping ProcessConclusionPART VI: Transportation and Storage of CO2CO2 COMPRESSIONCO2 Compression and Storage - Magnitude of the IssueCO2 Compression Energy Consumption - Heat IntegrationHeat Recovery OpportunitiesCO2 Purity and Pipeline Transport IssuesCO2 Storage Development - Prudent PracticesPublic Policy and Long-Term LiabilityConclusionCO2 TRANSPORT - THE MISSING LINK FOR CCSIntroductionExperience with CO2 TransportCO2 Transport by PipelineCO2 Transport by ShipShips Compared with PipelinesCO2 Infrastructure NetworksRegulation and Investment DecisionsStrategic Planning for PipelinesSTORAGE OF FOSSIL CARBONIntroductionSummary of Storage OptionsCurrent ActivitesUtilization Versus DisposalDifferent Forms of Stored CarbonStorage LifetimeStorage Capacity RequirementsClosing Natural Carbon CyclesThe Role of AlkalinityStorage SafetyStorage AccountabilityConclusion
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Autoren-Porträt
Detlef Stolten is the Director of the Institute of Energy Research at the Forschungszentrum Jülich. Prof. Stolten received his doctorate from the University of Technology at Clausthal,Germany. He served many years as a Research Scientist in the laboratories of Robert Bosch and Daimler Benz/Dornier. In 1998 he accepted the position of Director of the Institute of Materials and Process Technology at the Research Center Jülich. Two years later he became Professor for Fuel Cell Technology at the University of Technology (RWTH) at Aachen. Prof. Stolten's research focuses on fuel cells, implementing results from research in innovative products, procedures and processes in collaboration with industry, contributing towards bridging the gap between science and technology. His research activities are focused on energy process engineering of SOFC and PEFC systems, i.e. electrochemistry, stack technology, process and systems engineering as well as systems analysis. Prof. Stolten represents Germany in the Executive Committee of the IEA Annex Advanced Fuel Cells and is on the advisory board of the journal Fuel Cells. Viktor Scherer is the Head of the Department of Energy Plant Technology at the University of Bochum, Germany. He received his doctorate from the Karlsruhe Institute of Technolgy (KIT), Germany. Prof. Scherer worked for more than 10 years in the power plant industry for ABB and Alstom. In 2000 he was appointed as a Professor in Energy Plant Technology at the University of Bochum. His research activities are focused on the analysis and description of chemically reacting flow fields in the energy related industry, like power plant, steel and cement industry. Another research aspect is the integration of membranes for carbon capture into Integrated Gasification Combined Cycle (IGCC) power plants. Prof. Scherer is a member of the scientific advisory board of the VGB Power Tech, the European Association of power and heat generation.
Bibliographische Angaben
- 2011, XX, 620 Seiten, 7 farbige Abbildungen, 252 Schwarz-Weiß-Abbildungen, Maße: 18 x 24,6 cm, Gebunden, Englisch
- Herausgegeben: Detlef Stolten, Viktor Scherer
- Verlag: Wiley-VCH
- ISBN-10: 352733002X
- ISBN-13: 9783527330027
- Erscheinungsdatum: 07.06.2011
Sprache:
Englisch
Rezension zu „Efficient Carbon Capture for Coal Power Plants “
"The result is specific insights for process engineers, chemists, physicists and materials engineers in their relevant fields, as well as a sufficiently broad scope to be able to understand the opportunities and implications of the other disciples." (ETDE Energy database, 1 July 2011)
Pressezitat
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