Holdings: Hybrid power cycle arrangements for lower emissions

Hybrid power cycle arrangements for lower emissions:

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Bibliographic Details
Other Authors:	Shukla, Anoop Kumar (Editor), Singh, Onkar 1968- (Editor), Sharma, Meeta (Editor), Phanden, Rakesh Kumar (Editor), Davim, J. Paulo 1964- (Editor)
Format:	Electronic eBook
Language:	English
Published:	Boca Raton ; London ; New York CRC Press 2022
Series:	Science, technology, and management series
Subjects:	Aufsatzsammlung
Online Access:	TUM01
Physical Description:	1 Online-Ressource (viii, 298 Seiten) Illustrationen, Diagramme, Pläne
ISBN:	9781000566659 9781003213741

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245	1	0	\|a Hybrid power cycle arrangements for lower emissions \|c edited by Anoop Kumar Shukla, Onkar Singh, Meeta Sharma, Rakesh Kumar Phanden, J. Paulo Davim
264		1	\|a Boca Raton ; London ; New York \|b CRC Press \|c 2022
264		4	\|c © 2022
300			\|a 1 Online-Ressource (viii, 298 Seiten) \|b Illustrationen, Diagramme, Pläne
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505	8		\|a Cover -- Half Title -- Series Information -- Title Page -- Copyright Page -- Table of Contents -- Contributors -- Chapter 1 Hybrid Power Cycle: An Introduction -- 1.1 Introduction -- 1.2 Combined Cycle -- 1.3 Hybrid Solar Assisted Combined Cooling, Heating, and Power -- 1.4 Solid Oxide Fuel Cell-Based Hybrid Systems -- 1.4.1 Molten Carbonate Fuel Cell-Based Microturbine Hybrid Power Cycle -- 1.5 Geothermal Energy-Based Hybrid Power Systems -- References -- Chapter 2 Geothermal-Based Power System Integrated With Kalina and Organic Rankine Cycle -- 2.1 Introduction -- 2.1.1 The Worldwide Availability and Potential of Geothermal Energy Sources -- 2.1.2 Techno-Economic-Environmental Comparison -- 2.2 Multi-Criteria Optimization -- 2.2.1 Contributions of this Chapter -- 2.3 Selection and Description of Proposed System Configurations -- 2.3.1 Methodology -- 2.3.2 Thermodynamic Analysis -- 2.3.3 Exergoeconomic Analysis -- 2.3.4 Optimization Procedure -- 2.4 Results and Discussion -- 2.5 Summary -- References -- Chapter 3 Integrated Gasification Combined Cycle With Co-Gasification -- 3.1 Introduction -- 3.2 Thermo-Chemical Evaluation of Coal Gasifier -- 3.3 Results and Discussions -- 3.4 Summary -- Acknowledgment -- Nomenclature and Abbreviations -- References -- Chapter 4 Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- Cycle Powered By Solar Thermal Energy -- 4.1 Introduction -- 4.1.1 Overview of Thermodynamic Power Conversion Cycles -- 4.1.2 Subcritical Thermodynamic Cycle -- 4.1.3 Transcritical Thermodynamic Cycle -- 4.1.4 Supercritical Thermodynamic Cycle -- 4.2 Heat Sources Suitable With S-CO&lt -- sub&gt -- 2&lt -- /sub&gt -- Cycle -- 4.2.1 Concentrating Solar Power (CSP) Sources -- 4.2.2 Nuclear Reactors -- 4.2.3 Waste Heat Recovery (WHR) -- 4.2.3.1 Industrial Waste Heat -- 4.2.3.2 Internal Combustion Engine (ICE) -- 4.2.3.3 Fuel Cells
505	8		\|a 4.2.4 Geothermal Energy -- 4.2.5 Coal -- 4.2.6 Biomass -- 4.2.7 Cryogenic Fuel -- 4.3 Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- as Working Fluid -- 4.4 Merits of Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- as Working Fluid -- 4.5 Thermophysical Properties of Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- -- 4.6 Layouts of Different Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- Cycle Configurations -- 4.7 Review of Literature -- 4.8 Methodology -- 4.8.1 Cycle Description and Input Parameters -- 4.8.1.1 Assumptions -- 4.8.2 Mathematical Model -- 4.8.2.1 Turbine -- 4.8.2.2 Compressor -- 4.8.3 Exergy Model -- 4.8.3.1 Exergy Balance Equations for Components of Cycle -- 4.9 Results and Discussion -- 4.9.1 Effect of Input Parameters On Exergetic Destruction Rate of Individual Component -- 4.9.1.1 Effect of Compressor Inlet Temperature -- 4.9.1.2 Effect of Turbine Inlet Temperature -- 4.9.1.3 Effect of Pressure Ratio -- 4.9.2 Effect of Various Input Parameters On Exergetic Efficiency -- 4.9.2.1 Effect of TIT -- 4.9.2.2 Effect of Compressor Inlet Temperature at Different Turbine Inlet Temperature -- 4.9.2.3 Effect of Pressure Ratio at Various Compressor Inlet Temperature -- 4.9.2.4 Effect of Pressure Ratio at Different Turbine Inlet Temperature -- 4.9.3 Effect of Various Input Parameters On Performance of Turbomachinery -- 4.9.3.1 Effect of Turbine Inlet Pressure Or Maximum Cycle Pressure -- 4.9.3.2 Effect of Intermediate Pressure -- 4.9.3.4 Effect of Pressure Ratio -- 4.10 Summary -- References -- Chapter 5 Integrated Fuel Cell Hybrid Technology -- 5.1 Introduction -- 5.2 Research Methodology -- 5.3 Description of Fuel Cell -- 5.4 Integrated Technologies -- 5.4.1 Gasification-SOFC -- 5.4.2 SOFC-GT -- 5.4.3 Pressurized SOFC-GT -- 5.4.4 Non-Pressurized SOFC-GT -- 5.4.5 SOFC-CHP -- 5.4.6 SOFC-Trigeneration
505	8		\|a 5.4.7 SOFC-GT-Absorption Chillers -- 5.4.8 SOFC-PV -- 5.4.9 Future Scope and Challenges -- 5.5 Conclusions and Future Challenging Prospects -- Abbreviations -- References -- Chapter 6 CHP Coupled With a SOFC Plant -- 6.1 Introduction -- 6.2 Thermodynamic Modeling -- 6.3 Methods and Materials -- 6.4 Results and Discussion -- 6.5 Summary -- Abbreviations -- References -- Chapter 7 Fuel Cell Hybrid Power System -- 7.1 Introduction -- 7.2 Fuel Cell -- 7.3 Solar Panel -- 7.3.1 Battery -- 7.4 Integration of Fuel Cell and Battery -- 7.5 Integration of Fuel Cell and PV Cells -- 7.5.1 Integration of Fuel Cell, PV Cell, and Battery -- 7.6 Integration of Fuel Cell, PV Cell, and Wind -- 7.7 Integration of Fuel Cell and Gas Turbine -- 7.8 Integration of Fuel Cell and CHP -- 7.9 Conclusion and Future Scope -- Abbreviations -- References -- Chapter 8 Solid Oxide Fuel Cell Integrated Blade Cooled Gas Turbine Hybrid Power Cycle -- 8.1 Introduction -- 8.2 System Description -- 8.3 Modeling and Simulation -- 8.3.1 Compressor -- 8.3.2 Intercooler -- 8.3.3 Recuperator -- 8.3.4 Fuel Cell (SOFC) -- 8.3.5 Blade Cooled Gas Turbine -- 8.3.6 Combustion Chamber -- 8.4 Result and Discussion -- 8.4.1 Validation -- 8.4.2 Influence of TIT On Blade Coolant Requirement -- 8.4.3 Sensitivity Analysis -- 8.4.4 Effect of Fuel Utilization Ratio and Recirculation Ratio -- 8.4.5 Effect of Fuel Utilization Ratio and Recirculation Ratio On Fuel Cell Performance -- 8.4.6 Influence of Compression Ratio (Rp,c) -- 8.4.7 Influence of Turbine Inlet Temperature (TIT) On Plant Specific Work -- 8.4.8 Influence of Turbine Inlet Temperature (TIT) On Hybrid Efficiency -- 8.4.9 Comparative Analysis of Power-Generating Units -- 8.4.10 Specific Fuel Consumption Within SOFC-ICGT Hybrid Cycle -- 8.4.11 Performance Map -- 8.5 Summary -- Nomenclature -- References
505	8		\|a Chapter 9 Municipal Solid Waste-Fueled Plants -- 9.1 Introduction -- 9.2 System Description and Assumptions -- 9.3 Modeling -- 9.3.1 Thermodynamic Evaluation -- 9.3.1.1 Waste Gasifier -- 9.3.1.2 Combustion Chamber -- 9.3.1.3 Thermoelectric Generator -- 9.3.1.4 Exergoeconomic Evaluation -- 9.3.1.5 Performance Criteria -- 9.3.1.6 Multi-Criteria Genetic Optimization -- 9.4 Results and Discussion -- 9.5 Conclusion -- Nomenclature and Abbreviations -- References -- Chapter 10 4E-Analysis of Sustainable Hybrid Tri-Generation System -- 10.1 Introduction -- 10.2 Description of the Proposed System -- 10.3 Methodology: Thermodynamic Modeling -- 10.3.1 WI Power Plant -- 10.3.2 Absorption Chiller -- 10.3.3 Solar Evacuated Thermal Collector -- 10.3.4 Economic Analysis -- 10.3.5 Environmental Analysis -- 10.3.6 Exergy Analysis -- 10.4 Multi-Objective Optimization -- 10.5 Case Study and the Challenges -- 10.6 Methodology -- 10.7 Results and Discussion -- 10.8 Summary -- References -- Chapter 11 Trigeneration System: Exergoeconomic and Environmental Analysis -- 11.1 Introduction -- 11.2 System Description -- 11.3 Modeling -- 11.3.1 Assumptions -- 11.4 Energy Analysis -- 11.4.1 Modeling of IRGT Cycle -- 11.4.2 Modeling of HRSG -- 11.4.3 Modeling of ORC -- 11.4.4 Modeling of ARS -- 11.5 Exergy Analysis -- 11.6 Exergoeconomic Analysis -- 11.7 Environmental Analysis -- 11.8 Overall Performance Criteria -- 11.8.1 Total Energy Efficiency (ɳtot) -- 11.8.2 Total Exergy Efficiency (εtot) -- 11.8.3 Total Cost Rate (Ċ&lt -- sub&gt -- tot&lt -- /sub&gt -- ) -- 11.8.4 Specific CO&lt -- sub&gt -- 2&lt -- /sub&gt -- Emission (S&lt -- sub&gt -- CO&lt -- sub&gt -- 2&lt -- /sub&gt -- &lt -- /sub&gt -- ) -- 11.9 Results and Discussion -- 11.9.1 Model Validation -- 11.9.2 Energy Results -- 11.9.3 Exergy Results -- 11.9.4 Exergoeconomic Results -- 11.9.5 Environmental Results
505	8		\|a 11.10 Parametric Results -- 11.10.1 Effect of Overall Compressor Ratio -- 11.10.2 Effect of AC Isentropic Efficiency -- 11.10.3 Effect of GT Isentropic Efficiency -- 11.11 Summary -- References -- Chapter 12 Organic Rankine Cycle Integrated Hybrid Arrangement for Power Generation -- 12.1 Introduction -- 12.2 Plant Layout -- 12.3 Single Pressure Level ORC -- 12.3.1 Subcritical ORC -- 12.3.2 Supercritical/transcritical ORC -- 12.4 Multi-Pressure Level -- 12.4.1 Subcritical ORC Multi-Pressure Level -- 12.4.2 Supercritical ORC Multi-Pressure Level -- 12.5 ORC Components -- 12.5.1 Turbine -- 12.5.2 Condenser -- 12.5.3 Pump -- 12.5.4 Boiler and Evaporators -- 12.6 ORC Applications -- 12.6.1 Geothermal -- 12.6.2 Heat Recovery -- 12.6.3 Biomass -- 12.6.4 Diathermic Oil -- 12.6.5 Solar Thermal -- 12.7 Combined Heat and Power -- 12.7.1 The Importance of CHP in Reducing Energy Consumption -- 12.8 Economic Modeling -- 12.8.1 Single Phase -- 12.8.2 Two-Phase -- 12.8.3 Supercritical -- 12.9 Summary -- References -- Chapter 13 Power-To-Fuel: A New Energy Storage Technique -- 13.1 Introduction -- 13.2 Key Sub-Process of P-T-F Pathways -- 13.2.1 Renewable Power Production -- 13.2.2 Water Electrolyzer (For Hydrogen Production) -- 13.2.2.1 CO2 Capture (For Hydrocarbon-Based Fuels) and N2 Production (For Ammonia Fuels) Techniques -- 13.3 The Operating Window of Various P-T-F Pathways -- 13.3.1 Direct Electrochemical Reduction Pathway -- 13.3.2 Water Electrolyzer Followed By Catalytic Step -- 13.3.3 Syngas Followed By a Catalytic Step (Case: Co-Electrolyzer Step) -- 13.4 Thermodynamic Assessment -- 13.4.1 Case 1: Power-To-Methanol -- 13.4.2 Case 2: Power-To-Ammonia -- 13.5 Conclusion -- References -- Index
655		7	\|0 (DE-588)4143413-4 \|a Aufsatzsammlung \|2 gnd-content
700	1		\|a Shukla, Anoop Kumar \|0 (DE-588)1298468329 \|4 edt
700	1		\|a Singh, Onkar \|d 1968- \|0 (DE-588)137270593 \|4 edt
700	1		\|a Sharma, Meeta \|4 edt
700	1		\|a Phanden, Rakesh Kumar \|0 (DE-588)1192917405 \|4 edt
700	1		\|a Davim, J. Paulo \|d 1964- \|0 (DE-588)1043445226 \|4 edt
776	0	8	\|i Erscheint auch als \|a Kumar Shukla, Anoop \|t Hybrid Power Cycle Arrangements for Lower Emissions \|d Milton : Taylor & Francis Group,c2022 \|n Druck-Ausgabe, Hardcover \|z 978-1-032-07253-1
776	0	8	\|i Erscheint auch als \|n Druck-Ausgabe, Paperback \|z 978-1-032-10129-3
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contents	Cover -- Half Title -- Series Information -- Title Page -- Copyright Page -- Table of Contents -- Contributors -- Chapter 1 Hybrid Power Cycle: An Introduction -- 1.1 Introduction -- 1.2 Combined Cycle -- 1.3 Hybrid Solar Assisted Combined Cooling, Heating, and Power -- 1.4 Solid Oxide Fuel Cell-Based Hybrid Systems -- 1.4.1 Molten Carbonate Fuel Cell-Based Microturbine Hybrid Power Cycle -- 1.5 Geothermal Energy-Based Hybrid Power Systems -- References -- Chapter 2 Geothermal-Based Power System Integrated With Kalina and Organic Rankine Cycle -- 2.1 Introduction -- 2.1.1 The Worldwide Availability and Potential of Geothermal Energy Sources -- 2.1.2 Techno-Economic-Environmental Comparison -- 2.2 Multi-Criteria Optimization -- 2.2.1 Contributions of this Chapter -- 2.3 Selection and Description of Proposed System Configurations -- 2.3.1 Methodology -- 2.3.2 Thermodynamic Analysis -- 2.3.3 Exergoeconomic Analysis -- 2.3.4 Optimization Procedure -- 2.4 Results and Discussion -- 2.5 Summary -- References -- Chapter 3 Integrated Gasification Combined Cycle With Co-Gasification -- 3.1 Introduction -- 3.2 Thermo-Chemical Evaluation of Coal Gasifier -- 3.3 Results and Discussions -- 3.4 Summary -- Acknowledgment -- Nomenclature and Abbreviations -- References -- Chapter 4 Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- Cycle Powered By Solar Thermal Energy -- 4.1 Introduction -- 4.1.1 Overview of Thermodynamic Power Conversion Cycles -- 4.1.2 Subcritical Thermodynamic Cycle -- 4.1.3 Transcritical Thermodynamic Cycle -- 4.1.4 Supercritical Thermodynamic Cycle -- 4.2 Heat Sources Suitable With S-CO&lt -- sub&gt -- 2&lt -- /sub&gt -- Cycle -- 4.2.1 Concentrating Solar Power (CSP) Sources -- 4.2.2 Nuclear Reactors -- 4.2.3 Waste Heat Recovery (WHR) -- 4.2.3.1 Industrial Waste Heat -- 4.2.3.2 Internal Combustion Engine (ICE) -- 4.2.3.3 Fuel Cells 4.2.4 Geothermal Energy -- 4.2.5 Coal -- 4.2.6 Biomass -- 4.2.7 Cryogenic Fuel -- 4.3 Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- as Working Fluid -- 4.4 Merits of Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- as Working Fluid -- 4.5 Thermophysical Properties of Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- -- 4.6 Layouts of Different Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- Cycle Configurations -- 4.7 Review of Literature -- 4.8 Methodology -- 4.8.1 Cycle Description and Input Parameters -- 4.8.1.1 Assumptions -- 4.8.2 Mathematical Model -- 4.8.2.1 Turbine -- 4.8.2.2 Compressor -- 4.8.3 Exergy Model -- 4.8.3.1 Exergy Balance Equations for Components of Cycle -- 4.9 Results and Discussion -- 4.9.1 Effect of Input Parameters On Exergetic Destruction Rate of Individual Component -- 4.9.1.1 Effect of Compressor Inlet Temperature -- 4.9.1.2 Effect of Turbine Inlet Temperature -- 4.9.1.3 Effect of Pressure Ratio -- 4.9.2 Effect of Various Input Parameters On Exergetic Efficiency -- 4.9.2.1 Effect of TIT -- 4.9.2.2 Effect of Compressor Inlet Temperature at Different Turbine Inlet Temperature -- 4.9.2.3 Effect of Pressure Ratio at Various Compressor Inlet Temperature -- 4.9.2.4 Effect of Pressure Ratio at Different Turbine Inlet Temperature -- 4.9.3 Effect of Various Input Parameters On Performance of Turbomachinery -- 4.9.3.1 Effect of Turbine Inlet Pressure Or Maximum Cycle Pressure -- 4.9.3.2 Effect of Intermediate Pressure -- 4.9.3.4 Effect of Pressure Ratio -- 4.10 Summary -- References -- Chapter 5 Integrated Fuel Cell Hybrid Technology -- 5.1 Introduction -- 5.2 Research Methodology -- 5.3 Description of Fuel Cell -- 5.4 Integrated Technologies -- 5.4.1 Gasification-SOFC -- 5.4.2 SOFC-GT -- 5.4.3 Pressurized SOFC-GT -- 5.4.4 Non-Pressurized SOFC-GT -- 5.4.5 SOFC-CHP -- 5.4.6 SOFC-Trigeneration 5.4.7 SOFC-GT-Absorption Chillers -- 5.4.8 SOFC-PV -- 5.4.9 Future Scope and Challenges -- 5.5 Conclusions and Future Challenging Prospects -- Abbreviations -- References -- Chapter 6 CHP Coupled With a SOFC Plant -- 6.1 Introduction -- 6.2 Thermodynamic Modeling -- 6.3 Methods and Materials -- 6.4 Results and Discussion -- 6.5 Summary -- Abbreviations -- References -- Chapter 7 Fuel Cell Hybrid Power System -- 7.1 Introduction -- 7.2 Fuel Cell -- 7.3 Solar Panel -- 7.3.1 Battery -- 7.4 Integration of Fuel Cell and Battery -- 7.5 Integration of Fuel Cell and PV Cells -- 7.5.1 Integration of Fuel Cell, PV Cell, and Battery -- 7.6 Integration of Fuel Cell, PV Cell, and Wind -- 7.7 Integration of Fuel Cell and Gas Turbine -- 7.8 Integration of Fuel Cell and CHP -- 7.9 Conclusion and Future Scope -- Abbreviations -- References -- Chapter 8 Solid Oxide Fuel Cell Integrated Blade Cooled Gas Turbine Hybrid Power Cycle -- 8.1 Introduction -- 8.2 System Description -- 8.3 Modeling and Simulation -- 8.3.1 Compressor -- 8.3.2 Intercooler -- 8.3.3 Recuperator -- 8.3.4 Fuel Cell (SOFC) -- 8.3.5 Blade Cooled Gas Turbine -- 8.3.6 Combustion Chamber -- 8.4 Result and Discussion -- 8.4.1 Validation -- 8.4.2 Influence of TIT On Blade Coolant Requirement -- 8.4.3 Sensitivity Analysis -- 8.4.4 Effect of Fuel Utilization Ratio and Recirculation Ratio -- 8.4.5 Effect of Fuel Utilization Ratio and Recirculation Ratio On Fuel Cell Performance -- 8.4.6 Influence of Compression Ratio (Rp,c) -- 8.4.7 Influence of Turbine Inlet Temperature (TIT) On Plant Specific Work -- 8.4.8 Influence of Turbine Inlet Temperature (TIT) On Hybrid Efficiency -- 8.4.9 Comparative Analysis of Power-Generating Units -- 8.4.10 Specific Fuel Consumption Within SOFC-ICGT Hybrid Cycle -- 8.4.11 Performance Map -- 8.5 Summary -- Nomenclature -- References Chapter 9 Municipal Solid Waste-Fueled Plants -- 9.1 Introduction -- 9.2 System Description and Assumptions -- 9.3 Modeling -- 9.3.1 Thermodynamic Evaluation -- 9.3.1.1 Waste Gasifier -- 9.3.1.2 Combustion Chamber -- 9.3.1.3 Thermoelectric Generator -- 9.3.1.4 Exergoeconomic Evaluation -- 9.3.1.5 Performance Criteria -- 9.3.1.6 Multi-Criteria Genetic Optimization -- 9.4 Results and Discussion -- 9.5 Conclusion -- Nomenclature and Abbreviations -- References -- Chapter 10 4E-Analysis of Sustainable Hybrid Tri-Generation System -- 10.1 Introduction -- 10.2 Description of the Proposed System -- 10.3 Methodology: Thermodynamic Modeling -- 10.3.1 WI Power Plant -- 10.3.2 Absorption Chiller -- 10.3.3 Solar Evacuated Thermal Collector -- 10.3.4 Economic Analysis -- 10.3.5 Environmental Analysis -- 10.3.6 Exergy Analysis -- 10.4 Multi-Objective Optimization -- 10.5 Case Study and the Challenges -- 10.6 Methodology -- 10.7 Results and Discussion -- 10.8 Summary -- References -- Chapter 11 Trigeneration System: Exergoeconomic and Environmental Analysis -- 11.1 Introduction -- 11.2 System Description -- 11.3 Modeling -- 11.3.1 Assumptions -- 11.4 Energy Analysis -- 11.4.1 Modeling of IRGT Cycle -- 11.4.2 Modeling of HRSG -- 11.4.3 Modeling of ORC -- 11.4.4 Modeling of ARS -- 11.5 Exergy Analysis -- 11.6 Exergoeconomic Analysis -- 11.7 Environmental Analysis -- 11.8 Overall Performance Criteria -- 11.8.1 Total Energy Efficiency (ɳtot) -- 11.8.2 Total Exergy Efficiency (εtot) -- 11.8.3 Total Cost Rate (Ċ&lt -- sub&gt -- tot&lt -- /sub&gt -- ) -- 11.8.4 Specific CO&lt -- sub&gt -- 2&lt -- /sub&gt -- Emission (S&lt -- sub&gt -- CO&lt -- sub&gt -- 2&lt -- /sub&gt -- &lt -- /sub&gt -- ) -- 11.9 Results and Discussion -- 11.9.1 Model Validation -- 11.9.2 Energy Results -- 11.9.3 Exergy Results -- 11.9.4 Exergoeconomic Results -- 11.9.5 Environmental Results 11.10 Parametric Results -- 11.10.1 Effect of Overall Compressor Ratio -- 11.10.2 Effect of AC Isentropic Efficiency -- 11.10.3 Effect of GT Isentropic Efficiency -- 11.11 Summary -- References -- Chapter 12 Organic Rankine Cycle Integrated Hybrid Arrangement for Power Generation -- 12.1 Introduction -- 12.2 Plant Layout -- 12.3 Single Pressure Level ORC -- 12.3.1 Subcritical ORC -- 12.3.2 Supercritical/transcritical ORC -- 12.4 Multi-Pressure Level -- 12.4.1 Subcritical ORC Multi-Pressure Level -- 12.4.2 Supercritical ORC Multi-Pressure Level -- 12.5 ORC Components -- 12.5.1 Turbine -- 12.5.2 Condenser -- 12.5.3 Pump -- 12.5.4 Boiler and Evaporators -- 12.6 ORC Applications -- 12.6.1 Geothermal -- 12.6.2 Heat Recovery -- 12.6.3 Biomass -- 12.6.4 Diathermic Oil -- 12.6.5 Solar Thermal -- 12.7 Combined Heat and Power -- 12.7.1 The Importance of CHP in Reducing Energy Consumption -- 12.8 Economic Modeling -- 12.8.1 Single Phase -- 12.8.2 Two-Phase -- 12.8.3 Supercritical -- 12.9 Summary -- References -- Chapter 13 Power-To-Fuel: A New Energy Storage Technique -- 13.1 Introduction -- 13.2 Key Sub-Process of P-T-F Pathways -- 13.2.1 Renewable Power Production -- 13.2.2 Water Electrolyzer (For Hydrogen Production) -- 13.2.2.1 CO2 Capture (For Hydrocarbon-Based Fuels) and N2 Production (For Ammonia Fuels) Techniques -- 13.3 The Operating Window of Various P-T-F Pathways -- 13.3.1 Direct Electrochemical Reduction Pathway -- 13.3.2 Water Electrolyzer Followed By Catalytic Step -- 13.3.3 Syngas Followed By a Catalytic Step (Case: Co-Electrolyzer Step) -- 13.4 Thermodynamic Assessment -- 13.4.1 Case 1: Power-To-Methanol -- 13.4.2 Case 2: Power-To-Ammonia -- 13.5 Conclusion -- References -- Index
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discipline	Energietechnik
discipline_str_mv	Energietechnik
format	Electronic eBook
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ind1="8" ind2=" "><subfield code="a">Cover -- Half Title -- Series Information -- Title Page -- Copyright Page -- Table of Contents -- Contributors -- Chapter 1 Hybrid Power Cycle: An Introduction -- 1.1 Introduction -- 1.2 Combined Cycle -- 1.3 Hybrid Solar Assisted Combined Cooling, Heating, and Power -- 1.4 Solid Oxide Fuel Cell-Based Hybrid Systems -- 1.4.1 Molten Carbonate Fuel Cell-Based Microturbine Hybrid Power Cycle -- 1.5 Geothermal Energy-Based Hybrid Power Systems -- References -- Chapter 2 Geothermal-Based Power System Integrated With Kalina and Organic Rankine Cycle -- 2.1 Introduction -- 2.1.1 The Worldwide Availability and Potential of Geothermal Energy Sources -- 2.1.2 Techno-Economic-Environmental Comparison -- 2.2 Multi-Criteria Optimization -- 2.2.1 Contributions of this Chapter -- 2.3 Selection and Description of Proposed System Configurations -- 2.3.1 Methodology -- 2.3.2 Thermodynamic Analysis -- 2.3.3 Exergoeconomic Analysis -- 2.3.4 Optimization Procedure -- 2.4 Results and Discussion -- 2.5 Summary -- References -- Chapter 3 Integrated Gasification Combined Cycle With Co-Gasification -- 3.1 Introduction -- 3.2 Thermo-Chemical Evaluation of Coal Gasifier -- 3.3 Results and Discussions -- 3.4 Summary -- Acknowledgment -- Nomenclature and Abbreviations -- References -- Chapter 4 Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- Cycle Powered By Solar Thermal Energy -- 4.1 Introduction -- 4.1.1 Overview of Thermodynamic Power Conversion Cycles -- 4.1.2 Subcritical Thermodynamic Cycle -- 4.1.3 Transcritical Thermodynamic Cycle -- 4.1.4 Supercritical Thermodynamic Cycle -- 4.2 Heat Sources Suitable With S-CO&lt -- sub&gt -- 2&lt -- /sub&gt -- Cycle -- 4.2.1 Concentrating Solar Power (CSP) Sources -- 4.2.2 Nuclear Reactors -- 4.2.3 Waste Heat Recovery (WHR) -- 4.2.3.1 Industrial Waste Heat -- 4.2.3.2 Internal Combustion Engine (ICE) -- 4.2.3.3 Fuel Cells</subfield></datafield><datafield tag="505" ind1="8" ind2=" "><subfield code="a">4.2.4 Geothermal Energy -- 4.2.5 Coal -- 4.2.6 Biomass -- 4.2.7 Cryogenic Fuel -- 4.3 Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- as Working Fluid -- 4.4 Merits of Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- as Working Fluid -- 4.5 Thermophysical Properties of Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- -- 4.6 Layouts of Different Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- Cycle Configurations -- 4.7 Review of Literature -- 4.8 Methodology -- 4.8.1 Cycle Description and Input Parameters -- 4.8.1.1 Assumptions -- 4.8.2 Mathematical Model -- 4.8.2.1 Turbine -- 4.8.2.2 Compressor -- 4.8.3 Exergy Model -- 4.8.3.1 Exergy Balance Equations for Components of Cycle -- 4.9 Results and Discussion -- 4.9.1 Effect of Input Parameters On Exergetic Destruction Rate of Individual Component -- 4.9.1.1 Effect of Compressor Inlet Temperature -- 4.9.1.2 Effect of Turbine Inlet Temperature -- 4.9.1.3 Effect of Pressure Ratio -- 4.9.2 Effect of Various Input Parameters On Exergetic Efficiency -- 4.9.2.1 Effect of TIT -- 4.9.2.2 Effect of Compressor Inlet Temperature at Different Turbine Inlet Temperature -- 4.9.2.3 Effect of Pressure Ratio at Various Compressor Inlet Temperature -- 4.9.2.4 Effect of Pressure Ratio at Different Turbine Inlet Temperature -- 4.9.3 Effect of Various Input Parameters On Performance of Turbomachinery -- 4.9.3.1 Effect of Turbine Inlet Pressure Or Maximum Cycle Pressure -- 4.9.3.2 Effect of Intermediate Pressure -- 4.9.3.4 Effect of Pressure Ratio -- 4.10 Summary -- References -- Chapter 5 Integrated Fuel Cell Hybrid Technology -- 5.1 Introduction -- 5.2 Research Methodology -- 5.3 Description of Fuel Cell -- 5.4 Integrated Technologies -- 5.4.1 Gasification-SOFC -- 5.4.2 SOFC-GT -- 5.4.3 Pressurized SOFC-GT -- 5.4.4 Non-Pressurized SOFC-GT -- 5.4.5 SOFC-CHP -- 5.4.6 SOFC-Trigeneration</subfield></datafield><datafield tag="505" ind1="8" ind2=" "><subfield code="a">5.4.7 SOFC-GT-Absorption Chillers -- 5.4.8 SOFC-PV -- 5.4.9 Future Scope and Challenges -- 5.5 Conclusions and Future Challenging Prospects -- Abbreviations -- References -- Chapter 6 CHP Coupled With a SOFC Plant -- 6.1 Introduction -- 6.2 Thermodynamic Modeling -- 6.3 Methods and Materials -- 6.4 Results and Discussion -- 6.5 Summary -- Abbreviations -- References -- Chapter 7 Fuel Cell Hybrid Power System -- 7.1 Introduction -- 7.2 Fuel Cell -- 7.3 Solar Panel -- 7.3.1 Battery -- 7.4 Integration of Fuel Cell and Battery -- 7.5 Integration of Fuel Cell and PV Cells -- 7.5.1 Integration of Fuel Cell, PV Cell, and Battery -- 7.6 Integration of Fuel Cell, PV Cell, and Wind -- 7.7 Integration of Fuel Cell and Gas Turbine -- 7.8 Integration of Fuel Cell and CHP -- 7.9 Conclusion and Future Scope -- Abbreviations -- References -- Chapter 8 Solid Oxide Fuel Cell Integrated Blade Cooled Gas Turbine Hybrid Power Cycle -- 8.1 Introduction -- 8.2 System Description -- 8.3 Modeling and Simulation -- 8.3.1 Compressor -- 8.3.2 Intercooler -- 8.3.3 Recuperator -- 8.3.4 Fuel Cell (SOFC) -- 8.3.5 Blade Cooled Gas Turbine -- 8.3.6 Combustion Chamber -- 8.4 Result and Discussion -- 8.4.1 Validation -- 8.4.2 Influence of TIT On Blade Coolant Requirement -- 8.4.3 Sensitivity Analysis -- 8.4.4 Effect of Fuel Utilization Ratio and Recirculation Ratio -- 8.4.5 Effect of Fuel Utilization Ratio and Recirculation Ratio On Fuel Cell Performance -- 8.4.6 Influence of Compression Ratio (Rp,c) -- 8.4.7 Influence of Turbine Inlet Temperature (TIT) On Plant Specific Work -- 8.4.8 Influence of Turbine Inlet Temperature (TIT) On Hybrid Efficiency -- 8.4.9 Comparative Analysis of Power-Generating Units -- 8.4.10 Specific Fuel Consumption Within SOFC-ICGT Hybrid Cycle -- 8.4.11 Performance Map -- 8.5 Summary -- Nomenclature -- References</subfield></datafield><datafield tag="505" ind1="8" ind2=" "><subfield code="a">Chapter 9 Municipal Solid Waste-Fueled Plants -- 9.1 Introduction -- 9.2 System Description and Assumptions -- 9.3 Modeling -- 9.3.1 Thermodynamic Evaluation -- 9.3.1.1 Waste Gasifier -- 9.3.1.2 Combustion Chamber -- 9.3.1.3 Thermoelectric Generator -- 9.3.1.4 Exergoeconomic Evaluation -- 9.3.1.5 Performance Criteria -- 9.3.1.6 Multi-Criteria Genetic Optimization -- 9.4 Results and Discussion -- 9.5 Conclusion -- Nomenclature and Abbreviations -- References -- Chapter 10 4E-Analysis of Sustainable Hybrid Tri-Generation System -- 10.1 Introduction -- 10.2 Description of the Proposed System -- 10.3 Methodology: Thermodynamic Modeling -- 10.3.1 WI Power Plant -- 10.3.2 Absorption Chiller -- 10.3.3 Solar Evacuated Thermal Collector -- 10.3.4 Economic Analysis -- 10.3.5 Environmental Analysis -- 10.3.6 Exergy Analysis -- 10.4 Multi-Objective Optimization -- 10.5 Case Study and the Challenges -- 10.6 Methodology -- 10.7 Results and Discussion -- 10.8 Summary -- References -- Chapter 11 Trigeneration System: Exergoeconomic and Environmental Analysis -- 11.1 Introduction -- 11.2 System Description -- 11.3 Modeling -- 11.3.1 Assumptions -- 11.4 Energy Analysis -- 11.4.1 Modeling of IRGT Cycle -- 11.4.2 Modeling of HRSG -- 11.4.3 Modeling of ORC -- 11.4.4 Modeling of ARS -- 11.5 Exergy Analysis -- 11.6 Exergoeconomic Analysis -- 11.7 Environmental Analysis -- 11.8 Overall Performance Criteria -- 11.8.1 Total Energy Efficiency (ɳtot) -- 11.8.2 Total Exergy Efficiency (εtot) -- 11.8.3 Total Cost Rate (Ċ&lt -- sub&gt -- tot&lt -- /sub&gt -- ) -- 11.8.4 Specific CO&lt -- sub&gt -- 2&lt -- /sub&gt -- Emission (S&lt -- sub&gt -- CO&lt -- sub&gt -- 2&lt -- /sub&gt -- &lt -- /sub&gt -- ) -- 11.9 Results and Discussion -- 11.9.1 Model Validation -- 11.9.2 Energy Results -- 11.9.3 Exergy Results -- 11.9.4 Exergoeconomic Results -- 11.9.5 Environmental Results</subfield></datafield><datafield tag="505" ind1="8" ind2=" "><subfield code="a">11.10 Parametric Results -- 11.10.1 Effect of Overall Compressor Ratio -- 11.10.2 Effect of AC Isentropic Efficiency -- 11.10.3 Effect of GT Isentropic Efficiency -- 11.11 Summary -- References -- Chapter 12 Organic Rankine Cycle Integrated Hybrid Arrangement for Power Generation -- 12.1 Introduction -- 12.2 Plant Layout -- 12.3 Single Pressure Level ORC -- 12.3.1 Subcritical ORC -- 12.3.2 Supercritical/transcritical ORC -- 12.4 Multi-Pressure Level -- 12.4.1 Subcritical ORC Multi-Pressure Level -- 12.4.2 Supercritical ORC Multi-Pressure Level -- 12.5 ORC Components -- 12.5.1 Turbine -- 12.5.2 Condenser -- 12.5.3 Pump -- 12.5.4 Boiler and Evaporators -- 12.6 ORC Applications -- 12.6.1 Geothermal -- 12.6.2 Heat Recovery -- 12.6.3 Biomass -- 12.6.4 Diathermic Oil -- 12.6.5 Solar Thermal -- 12.7 Combined Heat and Power -- 12.7.1 The Importance of CHP in Reducing Energy Consumption -- 12.8 Economic Modeling -- 12.8.1 Single Phase -- 12.8.2 Two-Phase -- 12.8.3 Supercritical -- 12.9 Summary -- References -- Chapter 13 Power-To-Fuel: A New Energy Storage Technique -- 13.1 Introduction -- 13.2 Key Sub-Process of P-T-F Pathways -- 13.2.1 Renewable Power Production -- 13.2.2 Water Electrolyzer (For Hydrogen Production) -- 13.2.2.1 CO2 Capture (For Hydrocarbon-Based Fuels) and N2 Production (For Ammonia Fuels) Techniques -- 13.3 The Operating Window of Various P-T-F Pathways -- 13.3.1 Direct Electrochemical Reduction Pathway -- 13.3.2 Water Electrolyzer Followed By Catalytic Step -- 13.3.3 Syngas Followed By a Catalytic Step (Case: Co-Electrolyzer Step) -- 13.4 Thermodynamic Assessment -- 13.4.1 Case 1: Power-To-Methanol -- 13.4.2 Case 2: Power-To-Ammonia -- 13.5 Conclusion -- References -- Index</subfield></datafield><datafield tag="655" ind1=" " ind2="7"><subfield code="0">(DE-588)4143413-4</subfield><subfield code="a">Aufsatzsammlung</subfield><subfield code="2">gnd-content</subfield></datafield><datafield tag="700" ind1="1" ind2=" "><subfield code="a">Shukla, Anoop Kumar</subfield><subfield code="0">(DE-588)1298468329</subfield><subfield code="4">edt</subfield></datafield><datafield tag="700" ind1="1" ind2=" "><subfield code="a">Singh, Onkar</subfield><subfield code="d">1968-</subfield><subfield code="0">(DE-588)137270593</subfield><subfield code="4">edt</subfield></datafield><datafield tag="700" ind1="1" ind2=" "><subfield code="a">Sharma, Meeta</subfield><subfield code="4">edt</subfield></datafield><datafield tag="700" ind1="1" ind2=" "><subfield code="a">Phanden, Rakesh Kumar</subfield><subfield code="0">(DE-588)1192917405</subfield><subfield code="4">edt</subfield></datafield><datafield tag="700" ind1="1" ind2=" "><subfield code="a">Davim, J. 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genre	(DE-588)4143413-4 Aufsatzsammlung gnd-content
genre_facet	Aufsatzsammlung
id	DE-604.BV048221997
illustrated	Not Illustrated
index_date	2024-07-03T19:50:33Z
indexdate	2024-07-10T09:32:25Z
institution	BVB
isbn	9781000566659 9781003213741
language	English
oai_aleph_id	oai:aleph.bib-bvb.de:BVB01-033602734
oclc_num	1319630584
open_access_boolean
owner	DE-91 DE-BY-TUM
owner_facet	DE-91 DE-BY-TUM
physical	1 Online-Ressource (viii, 298 Seiten) Illustrationen, Diagramme, Pläne
psigel	ZDB-30-PQE ZDB-30-PQE TUM_PDA_PQE_Kauf
publishDate	2022
publishDateSearch	2022
publishDateSort	2022
publisher	CRC Press
record_format	marc
series2	Science, technology, and management series
spelling	Hybrid power cycle arrangements for lower emissions edited by Anoop Kumar Shukla, Onkar Singh, Meeta Sharma, Rakesh Kumar Phanden, J. Paulo Davim Boca Raton ; London ; New York CRC Press 2022 © 2022 1 Online-Ressource (viii, 298 Seiten) Illustrationen, Diagramme, Pläne txt rdacontent c rdamedia cr rdacarrier Science, technology, and management series Cover -- Half Title -- Series Information -- Title Page -- Copyright Page -- Table of Contents -- Contributors -- Chapter 1 Hybrid Power Cycle: An Introduction -- 1.1 Introduction -- 1.2 Combined Cycle -- 1.3 Hybrid Solar Assisted Combined Cooling, Heating, and Power -- 1.4 Solid Oxide Fuel Cell-Based Hybrid Systems -- 1.4.1 Molten Carbonate Fuel Cell-Based Microturbine Hybrid Power Cycle -- 1.5 Geothermal Energy-Based Hybrid Power Systems -- References -- Chapter 2 Geothermal-Based Power System Integrated With Kalina and Organic Rankine Cycle -- 2.1 Introduction -- 2.1.1 The Worldwide Availability and Potential of Geothermal Energy Sources -- 2.1.2 Techno-Economic-Environmental Comparison -- 2.2 Multi-Criteria Optimization -- 2.2.1 Contributions of this Chapter -- 2.3 Selection and Description of Proposed System Configurations -- 2.3.1 Methodology -- 2.3.2 Thermodynamic Analysis -- 2.3.3 Exergoeconomic Analysis -- 2.3.4 Optimization Procedure -- 2.4 Results and Discussion -- 2.5 Summary -- References -- Chapter 3 Integrated Gasification Combined Cycle With Co-Gasification -- 3.1 Introduction -- 3.2 Thermo-Chemical Evaluation of Coal Gasifier -- 3.3 Results and Discussions -- 3.4 Summary -- Acknowledgment -- Nomenclature and Abbreviations -- References -- Chapter 4 Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- Cycle Powered By Solar Thermal Energy -- 4.1 Introduction -- 4.1.1 Overview of Thermodynamic Power Conversion Cycles -- 4.1.2 Subcritical Thermodynamic Cycle -- 4.1.3 Transcritical Thermodynamic Cycle -- 4.1.4 Supercritical Thermodynamic Cycle -- 4.2 Heat Sources Suitable With S-CO&lt -- sub&gt -- 2&lt -- /sub&gt -- Cycle -- 4.2.1 Concentrating Solar Power (CSP) Sources -- 4.2.2 Nuclear Reactors -- 4.2.3 Waste Heat Recovery (WHR) -- 4.2.3.1 Industrial Waste Heat -- 4.2.3.2 Internal Combustion Engine (ICE) -- 4.2.3.3 Fuel Cells 4.2.4 Geothermal Energy -- 4.2.5 Coal -- 4.2.6 Biomass -- 4.2.7 Cryogenic Fuel -- 4.3 Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- as Working Fluid -- 4.4 Merits of Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- as Working Fluid -- 4.5 Thermophysical Properties of Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- -- 4.6 Layouts of Different Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- Cycle Configurations -- 4.7 Review of Literature -- 4.8 Methodology -- 4.8.1 Cycle Description and Input Parameters -- 4.8.1.1 Assumptions -- 4.8.2 Mathematical Model -- 4.8.2.1 Turbine -- 4.8.2.2 Compressor -- 4.8.3 Exergy Model -- 4.8.3.1 Exergy Balance Equations for Components of Cycle -- 4.9 Results and Discussion -- 4.9.1 Effect of Input Parameters On Exergetic Destruction Rate of Individual Component -- 4.9.1.1 Effect of Compressor Inlet Temperature -- 4.9.1.2 Effect of Turbine Inlet Temperature -- 4.9.1.3 Effect of Pressure Ratio -- 4.9.2 Effect of Various Input Parameters On Exergetic Efficiency -- 4.9.2.1 Effect of TIT -- 4.9.2.2 Effect of Compressor Inlet Temperature at Different Turbine Inlet Temperature -- 4.9.2.3 Effect of Pressure Ratio at Various Compressor Inlet Temperature -- 4.9.2.4 Effect of Pressure Ratio at Different Turbine Inlet Temperature -- 4.9.3 Effect of Various Input Parameters On Performance of Turbomachinery -- 4.9.3.1 Effect of Turbine Inlet Pressure Or Maximum Cycle Pressure -- 4.9.3.2 Effect of Intermediate Pressure -- 4.9.3.4 Effect of Pressure Ratio -- 4.10 Summary -- References -- Chapter 5 Integrated Fuel Cell Hybrid Technology -- 5.1 Introduction -- 5.2 Research Methodology -- 5.3 Description of Fuel Cell -- 5.4 Integrated Technologies -- 5.4.1 Gasification-SOFC -- 5.4.2 SOFC-GT -- 5.4.3 Pressurized SOFC-GT -- 5.4.4 Non-Pressurized SOFC-GT -- 5.4.5 SOFC-CHP -- 5.4.6 SOFC-Trigeneration 5.4.7 SOFC-GT-Absorption Chillers -- 5.4.8 SOFC-PV -- 5.4.9 Future Scope and Challenges -- 5.5 Conclusions and Future Challenging Prospects -- Abbreviations -- References -- Chapter 6 CHP Coupled With a SOFC Plant -- 6.1 Introduction -- 6.2 Thermodynamic Modeling -- 6.3 Methods and Materials -- 6.4 Results and Discussion -- 6.5 Summary -- Abbreviations -- References -- Chapter 7 Fuel Cell Hybrid Power System -- 7.1 Introduction -- 7.2 Fuel Cell -- 7.3 Solar Panel -- 7.3.1 Battery -- 7.4 Integration of Fuel Cell and Battery -- 7.5 Integration of Fuel Cell and PV Cells -- 7.5.1 Integration of Fuel Cell, PV Cell, and Battery -- 7.6 Integration of Fuel Cell, PV Cell, and Wind -- 7.7 Integration of Fuel Cell and Gas Turbine -- 7.8 Integration of Fuel Cell and CHP -- 7.9 Conclusion and Future Scope -- Abbreviations -- References -- Chapter 8 Solid Oxide Fuel Cell Integrated Blade Cooled Gas Turbine Hybrid Power Cycle -- 8.1 Introduction -- 8.2 System Description -- 8.3 Modeling and Simulation -- 8.3.1 Compressor -- 8.3.2 Intercooler -- 8.3.3 Recuperator -- 8.3.4 Fuel Cell (SOFC) -- 8.3.5 Blade Cooled Gas Turbine -- 8.3.6 Combustion Chamber -- 8.4 Result and Discussion -- 8.4.1 Validation -- 8.4.2 Influence of TIT On Blade Coolant Requirement -- 8.4.3 Sensitivity Analysis -- 8.4.4 Effect of Fuel Utilization Ratio and Recirculation Ratio -- 8.4.5 Effect of Fuel Utilization Ratio and Recirculation Ratio On Fuel Cell Performance -- 8.4.6 Influence of Compression Ratio (Rp,c) -- 8.4.7 Influence of Turbine Inlet Temperature (TIT) On Plant Specific Work -- 8.4.8 Influence of Turbine Inlet Temperature (TIT) On Hybrid Efficiency -- 8.4.9 Comparative Analysis of Power-Generating Units -- 8.4.10 Specific Fuel Consumption Within SOFC-ICGT Hybrid Cycle -- 8.4.11 Performance Map -- 8.5 Summary -- Nomenclature -- References Chapter 9 Municipal Solid Waste-Fueled Plants -- 9.1 Introduction -- 9.2 System Description and Assumptions -- 9.3 Modeling -- 9.3.1 Thermodynamic Evaluation -- 9.3.1.1 Waste Gasifier -- 9.3.1.2 Combustion Chamber -- 9.3.1.3 Thermoelectric Generator -- 9.3.1.4 Exergoeconomic Evaluation -- 9.3.1.5 Performance Criteria -- 9.3.1.6 Multi-Criteria Genetic Optimization -- 9.4 Results and Discussion -- 9.5 Conclusion -- Nomenclature and Abbreviations -- References -- Chapter 10 4E-Analysis of Sustainable Hybrid Tri-Generation System -- 10.1 Introduction -- 10.2 Description of the Proposed System -- 10.3 Methodology: Thermodynamic Modeling -- 10.3.1 WI Power Plant -- 10.3.2 Absorption Chiller -- 10.3.3 Solar Evacuated Thermal Collector -- 10.3.4 Economic Analysis -- 10.3.5 Environmental Analysis -- 10.3.6 Exergy Analysis -- 10.4 Multi-Objective Optimization -- 10.5 Case Study and the Challenges -- 10.6 Methodology -- 10.7 Results and Discussion -- 10.8 Summary -- References -- Chapter 11 Trigeneration System: Exergoeconomic and Environmental Analysis -- 11.1 Introduction -- 11.2 System Description -- 11.3 Modeling -- 11.3.1 Assumptions -- 11.4 Energy Analysis -- 11.4.1 Modeling of IRGT Cycle -- 11.4.2 Modeling of HRSG -- 11.4.3 Modeling of ORC -- 11.4.4 Modeling of ARS -- 11.5 Exergy Analysis -- 11.6 Exergoeconomic Analysis -- 11.7 Environmental Analysis -- 11.8 Overall Performance Criteria -- 11.8.1 Total Energy Efficiency (ɳtot) -- 11.8.2 Total Exergy Efficiency (εtot) -- 11.8.3 Total Cost Rate (Ċ&lt -- sub&gt -- tot&lt -- /sub&gt -- ) -- 11.8.4 Specific CO&lt -- sub&gt -- 2&lt -- /sub&gt -- Emission (S&lt -- sub&gt -- CO&lt -- sub&gt -- 2&lt -- /sub&gt -- &lt -- /sub&gt -- ) -- 11.9 Results and Discussion -- 11.9.1 Model Validation -- 11.9.2 Energy Results -- 11.9.3 Exergy Results -- 11.9.4 Exergoeconomic Results -- 11.9.5 Environmental Results 11.10 Parametric Results -- 11.10.1 Effect of Overall Compressor Ratio -- 11.10.2 Effect of AC Isentropic Efficiency -- 11.10.3 Effect of GT Isentropic Efficiency -- 11.11 Summary -- References -- Chapter 12 Organic Rankine Cycle Integrated Hybrid Arrangement for Power Generation -- 12.1 Introduction -- 12.2 Plant Layout -- 12.3 Single Pressure Level ORC -- 12.3.1 Subcritical ORC -- 12.3.2 Supercritical/transcritical ORC -- 12.4 Multi-Pressure Level -- 12.4.1 Subcritical ORC Multi-Pressure Level -- 12.4.2 Supercritical ORC Multi-Pressure Level -- 12.5 ORC Components -- 12.5.1 Turbine -- 12.5.2 Condenser -- 12.5.3 Pump -- 12.5.4 Boiler and Evaporators -- 12.6 ORC Applications -- 12.6.1 Geothermal -- 12.6.2 Heat Recovery -- 12.6.3 Biomass -- 12.6.4 Diathermic Oil -- 12.6.5 Solar Thermal -- 12.7 Combined Heat and Power -- 12.7.1 The Importance of CHP in Reducing Energy Consumption -- 12.8 Economic Modeling -- 12.8.1 Single Phase -- 12.8.2 Two-Phase -- 12.8.3 Supercritical -- 12.9 Summary -- References -- Chapter 13 Power-To-Fuel: A New Energy Storage Technique -- 13.1 Introduction -- 13.2 Key Sub-Process of P-T-F Pathways -- 13.2.1 Renewable Power Production -- 13.2.2 Water Electrolyzer (For Hydrogen Production) -- 13.2.2.1 CO2 Capture (For Hydrocarbon-Based Fuels) and N2 Production (For Ammonia Fuels) Techniques -- 13.3 The Operating Window of Various P-T-F Pathways -- 13.3.1 Direct Electrochemical Reduction Pathway -- 13.3.2 Water Electrolyzer Followed By Catalytic Step -- 13.3.3 Syngas Followed By a Catalytic Step (Case: Co-Electrolyzer Step) -- 13.4 Thermodynamic Assessment -- 13.4.1 Case 1: Power-To-Methanol -- 13.4.2 Case 2: Power-To-Ammonia -- 13.5 Conclusion -- References -- Index (DE-588)4143413-4 Aufsatzsammlung gnd-content Shukla, Anoop Kumar (DE-588)1298468329 edt Singh, Onkar 1968- (DE-588)137270593 edt Sharma, Meeta edt Phanden, Rakesh Kumar (DE-588)1192917405 edt Davim, J. Paulo 1964- (DE-588)1043445226 edt Erscheint auch als Kumar Shukla, Anoop Hybrid Power Cycle Arrangements for Lower Emissions Milton : Taylor & Francis Group,c2022 Druck-Ausgabe, Hardcover 978-1-032-07253-1 Erscheint auch als Druck-Ausgabe, Paperback 978-1-032-10129-3
spellingShingle	Hybrid power cycle arrangements for lower emissions Cover -- Half Title -- Series Information -- Title Page -- Copyright Page -- Table of Contents -- Contributors -- Chapter 1 Hybrid Power Cycle: An Introduction -- 1.1 Introduction -- 1.2 Combined Cycle -- 1.3 Hybrid Solar Assisted Combined Cooling, Heating, and Power -- 1.4 Solid Oxide Fuel Cell-Based Hybrid Systems -- 1.4.1 Molten Carbonate Fuel Cell-Based Microturbine Hybrid Power Cycle -- 1.5 Geothermal Energy-Based Hybrid Power Systems -- References -- Chapter 2 Geothermal-Based Power System Integrated With Kalina and Organic Rankine Cycle -- 2.1 Introduction -- 2.1.1 The Worldwide Availability and Potential of Geothermal Energy Sources -- 2.1.2 Techno-Economic-Environmental Comparison -- 2.2 Multi-Criteria Optimization -- 2.2.1 Contributions of this Chapter -- 2.3 Selection and Description of Proposed System Configurations -- 2.3.1 Methodology -- 2.3.2 Thermodynamic Analysis -- 2.3.3 Exergoeconomic Analysis -- 2.3.4 Optimization Procedure -- 2.4 Results and Discussion -- 2.5 Summary -- References -- Chapter 3 Integrated Gasification Combined Cycle With Co-Gasification -- 3.1 Introduction -- 3.2 Thermo-Chemical Evaluation of Coal Gasifier -- 3.3 Results and Discussions -- 3.4 Summary -- Acknowledgment -- Nomenclature and Abbreviations -- References -- Chapter 4 Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- Cycle Powered By Solar Thermal Energy -- 4.1 Introduction -- 4.1.1 Overview of Thermodynamic Power Conversion Cycles -- 4.1.2 Subcritical Thermodynamic Cycle -- 4.1.3 Transcritical Thermodynamic Cycle -- 4.1.4 Supercritical Thermodynamic Cycle -- 4.2 Heat Sources Suitable With S-CO&lt -- sub&gt -- 2&lt -- /sub&gt -- Cycle -- 4.2.1 Concentrating Solar Power (CSP) Sources -- 4.2.2 Nuclear Reactors -- 4.2.3 Waste Heat Recovery (WHR) -- 4.2.3.1 Industrial Waste Heat -- 4.2.3.2 Internal Combustion Engine (ICE) -- 4.2.3.3 Fuel Cells 4.2.4 Geothermal Energy -- 4.2.5 Coal -- 4.2.6 Biomass -- 4.2.7 Cryogenic Fuel -- 4.3 Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- as Working Fluid -- 4.4 Merits of Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- as Working Fluid -- 4.5 Thermophysical Properties of Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- -- 4.6 Layouts of Different Supercritical CO&lt -- sub&gt -- 2&lt -- /sub&gt -- Cycle Configurations -- 4.7 Review of Literature -- 4.8 Methodology -- 4.8.1 Cycle Description and Input Parameters -- 4.8.1.1 Assumptions -- 4.8.2 Mathematical Model -- 4.8.2.1 Turbine -- 4.8.2.2 Compressor -- 4.8.3 Exergy Model -- 4.8.3.1 Exergy Balance Equations for Components of Cycle -- 4.9 Results and Discussion -- 4.9.1 Effect of Input Parameters On Exergetic Destruction Rate of Individual Component -- 4.9.1.1 Effect of Compressor Inlet Temperature -- 4.9.1.2 Effect of Turbine Inlet Temperature -- 4.9.1.3 Effect of Pressure Ratio -- 4.9.2 Effect of Various Input Parameters On Exergetic Efficiency -- 4.9.2.1 Effect of TIT -- 4.9.2.2 Effect of Compressor Inlet Temperature at Different Turbine Inlet Temperature -- 4.9.2.3 Effect of Pressure Ratio at Various Compressor Inlet Temperature -- 4.9.2.4 Effect of Pressure Ratio at Different Turbine Inlet Temperature -- 4.9.3 Effect of Various Input Parameters On Performance of Turbomachinery -- 4.9.3.1 Effect of Turbine Inlet Pressure Or Maximum Cycle Pressure -- 4.9.3.2 Effect of Intermediate Pressure -- 4.9.3.4 Effect of Pressure Ratio -- 4.10 Summary -- References -- Chapter 5 Integrated Fuel Cell Hybrid Technology -- 5.1 Introduction -- 5.2 Research Methodology -- 5.3 Description of Fuel Cell -- 5.4 Integrated Technologies -- 5.4.1 Gasification-SOFC -- 5.4.2 SOFC-GT -- 5.4.3 Pressurized SOFC-GT -- 5.4.4 Non-Pressurized SOFC-GT -- 5.4.5 SOFC-CHP -- 5.4.6 SOFC-Trigeneration 5.4.7 SOFC-GT-Absorption Chillers -- 5.4.8 SOFC-PV -- 5.4.9 Future Scope and Challenges -- 5.5 Conclusions and Future Challenging Prospects -- Abbreviations -- References -- Chapter 6 CHP Coupled With a SOFC Plant -- 6.1 Introduction -- 6.2 Thermodynamic Modeling -- 6.3 Methods and Materials -- 6.4 Results and Discussion -- 6.5 Summary -- Abbreviations -- References -- Chapter 7 Fuel Cell Hybrid Power System -- 7.1 Introduction -- 7.2 Fuel Cell -- 7.3 Solar Panel -- 7.3.1 Battery -- 7.4 Integration of Fuel Cell and Battery -- 7.5 Integration of Fuel Cell and PV Cells -- 7.5.1 Integration of Fuel Cell, PV Cell, and Battery -- 7.6 Integration of Fuel Cell, PV Cell, and Wind -- 7.7 Integration of Fuel Cell and Gas Turbine -- 7.8 Integration of Fuel Cell and CHP -- 7.9 Conclusion and Future Scope -- Abbreviations -- References -- Chapter 8 Solid Oxide Fuel Cell Integrated Blade Cooled Gas Turbine Hybrid Power Cycle -- 8.1 Introduction -- 8.2 System Description -- 8.3 Modeling and Simulation -- 8.3.1 Compressor -- 8.3.2 Intercooler -- 8.3.3 Recuperator -- 8.3.4 Fuel Cell (SOFC) -- 8.3.5 Blade Cooled Gas Turbine -- 8.3.6 Combustion Chamber -- 8.4 Result and Discussion -- 8.4.1 Validation -- 8.4.2 Influence of TIT On Blade Coolant Requirement -- 8.4.3 Sensitivity Analysis -- 8.4.4 Effect of Fuel Utilization Ratio and Recirculation Ratio -- 8.4.5 Effect of Fuel Utilization Ratio and Recirculation Ratio On Fuel Cell Performance -- 8.4.6 Influence of Compression Ratio (Rp,c) -- 8.4.7 Influence of Turbine Inlet Temperature (TIT) On Plant Specific Work -- 8.4.8 Influence of Turbine Inlet Temperature (TIT) On Hybrid Efficiency -- 8.4.9 Comparative Analysis of Power-Generating Units -- 8.4.10 Specific Fuel Consumption Within SOFC-ICGT Hybrid Cycle -- 8.4.11 Performance Map -- 8.5 Summary -- Nomenclature -- References Chapter 9 Municipal Solid Waste-Fueled Plants -- 9.1 Introduction -- 9.2 System Description and Assumptions -- 9.3 Modeling -- 9.3.1 Thermodynamic Evaluation -- 9.3.1.1 Waste Gasifier -- 9.3.1.2 Combustion Chamber -- 9.3.1.3 Thermoelectric Generator -- 9.3.1.4 Exergoeconomic Evaluation -- 9.3.1.5 Performance Criteria -- 9.3.1.6 Multi-Criteria Genetic Optimization -- 9.4 Results and Discussion -- 9.5 Conclusion -- Nomenclature and Abbreviations -- References -- Chapter 10 4E-Analysis of Sustainable Hybrid Tri-Generation System -- 10.1 Introduction -- 10.2 Description of the Proposed System -- 10.3 Methodology: Thermodynamic Modeling -- 10.3.1 WI Power Plant -- 10.3.2 Absorption Chiller -- 10.3.3 Solar Evacuated Thermal Collector -- 10.3.4 Economic Analysis -- 10.3.5 Environmental Analysis -- 10.3.6 Exergy Analysis -- 10.4 Multi-Objective Optimization -- 10.5 Case Study and the Challenges -- 10.6 Methodology -- 10.7 Results and Discussion -- 10.8 Summary -- References -- Chapter 11 Trigeneration System: Exergoeconomic and Environmental Analysis -- 11.1 Introduction -- 11.2 System Description -- 11.3 Modeling -- 11.3.1 Assumptions -- 11.4 Energy Analysis -- 11.4.1 Modeling of IRGT Cycle -- 11.4.2 Modeling of HRSG -- 11.4.3 Modeling of ORC -- 11.4.4 Modeling of ARS -- 11.5 Exergy Analysis -- 11.6 Exergoeconomic Analysis -- 11.7 Environmental Analysis -- 11.8 Overall Performance Criteria -- 11.8.1 Total Energy Efficiency (ɳtot) -- 11.8.2 Total Exergy Efficiency (εtot) -- 11.8.3 Total Cost Rate (Ċ&lt -- sub&gt -- tot&lt -- /sub&gt -- ) -- 11.8.4 Specific CO&lt -- sub&gt -- 2&lt -- /sub&gt -- Emission (S&lt -- sub&gt -- CO&lt -- sub&gt -- 2&lt -- /sub&gt -- &lt -- /sub&gt -- ) -- 11.9 Results and Discussion -- 11.9.1 Model Validation -- 11.9.2 Energy Results -- 11.9.3 Exergy Results -- 11.9.4 Exergoeconomic Results -- 11.9.5 Environmental Results 11.10 Parametric Results -- 11.10.1 Effect of Overall Compressor Ratio -- 11.10.2 Effect of AC Isentropic Efficiency -- 11.10.3 Effect of GT Isentropic Efficiency -- 11.11 Summary -- References -- Chapter 12 Organic Rankine Cycle Integrated Hybrid Arrangement for Power Generation -- 12.1 Introduction -- 12.2 Plant Layout -- 12.3 Single Pressure Level ORC -- 12.3.1 Subcritical ORC -- 12.3.2 Supercritical/transcritical ORC -- 12.4 Multi-Pressure Level -- 12.4.1 Subcritical ORC Multi-Pressure Level -- 12.4.2 Supercritical ORC Multi-Pressure Level -- 12.5 ORC Components -- 12.5.1 Turbine -- 12.5.2 Condenser -- 12.5.3 Pump -- 12.5.4 Boiler and Evaporators -- 12.6 ORC Applications -- 12.6.1 Geothermal -- 12.6.2 Heat Recovery -- 12.6.3 Biomass -- 12.6.4 Diathermic Oil -- 12.6.5 Solar Thermal -- 12.7 Combined Heat and Power -- 12.7.1 The Importance of CHP in Reducing Energy Consumption -- 12.8 Economic Modeling -- 12.8.1 Single Phase -- 12.8.2 Two-Phase -- 12.8.3 Supercritical -- 12.9 Summary -- References -- Chapter 13 Power-To-Fuel: A New Energy Storage Technique -- 13.1 Introduction -- 13.2 Key Sub-Process of P-T-F Pathways -- 13.2.1 Renewable Power Production -- 13.2.2 Water Electrolyzer (For Hydrogen Production) -- 13.2.2.1 CO2 Capture (For Hydrocarbon-Based Fuels) and N2 Production (For Ammonia Fuels) Techniques -- 13.3 The Operating Window of Various P-T-F Pathways -- 13.3.1 Direct Electrochemical Reduction Pathway -- 13.3.2 Water Electrolyzer Followed By Catalytic Step -- 13.3.3 Syngas Followed By a Catalytic Step (Case: Co-Electrolyzer Step) -- 13.4 Thermodynamic Assessment -- 13.4.1 Case 1: Power-To-Methanol -- 13.4.2 Case 2: Power-To-Ammonia -- 13.5 Conclusion -- References -- Index
subject_GND	(DE-588)4143413-4
title	Hybrid power cycle arrangements for lower emissions
title_auth	Hybrid power cycle arrangements for lower emissions
title_exact_search	Hybrid power cycle arrangements for lower emissions
title_exact_search_txtP	Hybrid power cycle arrangements for lower emissions
title_full	Hybrid power cycle arrangements for lower emissions edited by Anoop Kumar Shukla, Onkar Singh, Meeta Sharma, Rakesh Kumar Phanden, J. Paulo Davim
title_fullStr	Hybrid power cycle arrangements for lower emissions edited by Anoop Kumar Shukla, Onkar Singh, Meeta Sharma, Rakesh Kumar Phanden, J. Paulo Davim
title_full_unstemmed	Hybrid power cycle arrangements for lower emissions edited by Anoop Kumar Shukla, Onkar Singh, Meeta Sharma, Rakesh Kumar Phanden, J. Paulo Davim
title_short	Hybrid power cycle arrangements for lower emissions
title_sort	hybrid power cycle arrangements for lower emissions
topic_facet	Aufsatzsammlung
work_keys_str_mv	AT shuklaanoopkumar hybridpowercyclearrangementsforloweremissions AT singhonkar hybridpowercyclearrangementsforloweremissions AT sharmameeta hybridpowercyclearrangementsforloweremissions AT phandenrakeshkumar hybridpowercyclearrangementsforloweremissions AT davimjpaulo hybridpowercyclearrangementsforloweremissions

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