Net-Zero and Low Carbon Solutions for the Energy Sector (eBook)
320 Seiten
Wiley (Verlag)
978-1-119-98219-7 (ISBN)
Guide to choosing and investing in decarbonization technologies for the energy sector
Net-Zero and Low Carbon Solutions for the Energy Sector proposes mature (high technology readiness level) net-zero and low carbon pathways and technologies in the energy sector, discussing net-/near-zero solutions for producing and storing power, heat, biofuel, and hydrogen, and highlighting various pathways and processes to achieve net-zero targets and address climate concerns.
Each chapter provides a relevant case study to aid in the practical application of concepts, covering decarbonization solutions that have high potential to be used in the near future, such as solar-hybrid systems for net-zero power generation, CCUS-hybrid systems for low carbon power generation, pumped hydropower for power storage, commercial concentrating solar power plants for heat generation, gasification with CCUS for biofuel production, hybrid thermochemical process for hydrogen production, and more.
Written from the perspective of firsthand research experience in the field, this book includes information on:
- Net-zero power generation via solar, wind, hydropower, geothermal, hydrogen, and marine processes
- Near-zero power generation via nuclear, coal, natural gas, biomass, and ammonia processes
- Mechanical and battery-based power storage and heat storage via physical and thermochemical processes
- Near-zero heat generation processes and biofuels production, including biogas, biomethane, bioethanol, and biodiesel
- Hydrogen production via electrolysis and thermochemical processes with CCUS and low-emission technologies for hydrogen storage
Net-Zero and Low Carbon Solutions for the Energy Sector is a valuable resource for business professionals, academics, and policy makers who are active in contributing to net-zero emissions targets for keeping the atmospheric CO2 levels in an acceptable range.
Amin Mirkouei is an Associate Professor at University of Idaho, Forbes sustainability contributor, certified Professional Engineer (PE), and experienced Technologist. He has over 12 years of experience contributing and leading cross-disciplinary projects in decarbonization technologies, renewable materials, sustainable design and manufacturing, cyber-physical control and optimization, and operations research, particularly renewable fuels, green chemicals, and rare earth elements and minerals. He has published and co-authored over 50 articles in scientific journals and peer-reviewed conference proceedings.
Net-Zero and Low Carbon Solutions for the Energy Sector Guide to choosing and investing in decarbonization technologies for the energy sector Net-Zero and Low Carbon Solutions for the Energy Sector proposes mature (high technology readiness level) net-zero and low carbon pathways and technologies in the energy sector, discussing net-/near-zero solutions for producing and storing power, heat, biofuel, and hydrogen, and highlighting various pathways and processes to achieve net-zero targets and address climate concerns. Each chapter provides a relevant case study to aid in the practical application of concepts, covering decarbonization solutions that have high potential to be used in the near future, such as solar-hybrid systems for net-zero power generation, CCUS-hybrid systems for low carbon power generation, pumped hydropower for power storage, commercial concentrating solar power plants for heat generation, gasification with CCUS for biofuel production, hybrid thermochemical process for hydrogen production, and more. Written from the perspective of firsthand research experience in the field, this book includes information on: Net-zero power generation via solar, wind, hydropower, geothermal, hydrogen, and marine processesNear-zero power generation via nuclear, coal, natural gas, biomass, and ammonia processesMechanical and battery-based power storage and heat storage via physical and thermochemical processesNear-zero heat generation processes and biofuels production, including biogas, biomethane, bioethanol, and biodieselHydrogen production via electrolysis and thermochemical processes with CCUS and low-emission technologies for hydrogen storage Net-Zero and Low Carbon Solutions for the Energy Sector is a valuable resource for business professionals, academics, and policy makers who are active in contributing to net-zero emissions targets for keeping the atmospheric CO2 levels in an acceptable range.
List of Figures
- Figure 1.1 Energy generation from renewable resources.
- Figure 1.2 Key power generation methods.
- Figure 1.3 Major solar technologies for power generation.
- Figure 1.4 Solar PV progress and targets.
- Figure 1.5 Schematic of C‐Si solar cells.
- Figure 1.6 Schematic and example of a multijunction solar cell.
- Figure 1.7 Schematic of stand‐alone floating solar PV system (a) and hybrid floating solar PV with hydropower system (b).
- Figure 1.8 Schematic of the CIGS PV cell.
- Figure 1.9 Schematic of the organic solar cell.
- Figure 1.10 Schematic and examples of perovskite PV cells.
- Figure 1.11 CSP progress and goals.
- Figure 1.12 Schematic of a solar thermal tower receiver with heliostats field.
- Figure 1.13 Schematic of the parabolic trough (a) and parabolic dish (b).
- Figure 1.14 Schematic of the linear Fresnel reflector.
- Figure 1.15 Leading wind technologies for power generation.
- Figure 1.16 Example of onshore wind technology for power generation.
- Figure 1.17 Schematic of offshore wind turbines for power generation.
- Figure 1.18 Example of offshore wind technology for power generation.
- Figure 1.19 Examples of airborne wind technologies for power generation.
- Figure 1.20 Airborne wind energy system classification.
- Figure 1.21 Example of power generation through hydropower technology.
- Figure 1.22 Example of geothermal power generation.
- Figure 1.23 Main geothermal technologies for power generation.
- Figure 1.24 Schematic of dry steam technology for power generation.
- Figure 1.25 Schematic of flash steam technology for power generation.
- Figure 1.26 Schematic of binary cycle technology for power generation.
- Figure 1.27 Schematic of EGS for power generation.
- Figure 1.28 Schematic of electrolysis for power generation from hydrogen.
- Figure 1.29 Main hydrogen technologies for power generation.
- Figure 1.30 Example of hydrogen gas turbine with 30 MW capacity.
- Figure 1.31 Power generation through hydrogen fuel cells.
- Figure 1.32 Major marine technologies for power generation.
- Figure 1.33 Examples of ocean technologies.
- Figure 1.34 Schematic of wave energy technologies for power generation.
- Figure 1.35 Schematic of a closed Rankine cycle ocean thermal energy conversion system.
- Figure 1.36 Schematic of salinity gradient power generation with the TaPa‐SO3H membrane.
- Figure 1.37 Schematic of SUNSTORE configuration in Marstal, Denmark.
- Figure 1.38 Comparison of Solar PV cells (a) and modules (b) efficiency.
- Figure 2.1 Example of advanced light‐water nuclear technology for power generation.
- Figure 2.2 Main nuclear technologies for power generation.
- Figure 2.3 Schematic of the molten salt reactor for power generation.
- Figure 2.4 Schematic of sodium‐cooled fast reactor for power generation.
- Figure 2.5 Schematic of a high‐temperature reactor for power generation.
- Figure 2.6 Schematic of the advanced small modular reactor (top) and microreactor (bottom).
- Figure 2.7 Schematic of a fusion reactor.
- Figure 2.8 Example of emissions released from a coal power plant.
- Figure 2.9 Main carbon‐capturing technologies from coal‐fired power generation plants.
- Figure 2.10 Flow diagram of pre‐combustion CCUS technology for power generation from coal.
- Figure 2.11 Flow diagram of the post‐combustion CCUS technology for power generation from coal.
- Figure 2.12 Flow diagram of oxy‐fuel combustion CCUS technology for power generation from coal.
- Figure 2.13 Flow diagram of chemical looping CCUS technology for power generation from coal.
- Figure 2.14 Schematic of CO2 utilization and storage for the enhanced oil recovery.
- Figure 2.15 Example of advanced post‐combustion carbon capture technology from a natural gas power plant with up to 12 MWe and 200 tons CO2/day.
- Figure 2.16 Schematic of post‐combustion/chemical absorption processes for CCUS from natural gas power plant.
- Figure 2.17 Schematic of supercritical CO2‐based power cycles: (a) indirectly heated closed‐loop Brayton cycle and (b) directly heated cycle.
- Figure 2.18 Schematic of biomass use for CCUS and power generation.
- Figure 2.19 Main technologies for power generation from ammonia.
- Figure 2.20 Example of a chemical plant for ammonia production.
- Figure 2.21 Key carbon removal technologies.
- Figure 2.22 CCUS technology development progress.
- Figure 3.1 Classification of power storage technologies.
- Figure 3.2 Example of lithium‐ion batteries.
- Figure 3.3 Schematic of lithium‐ion power storage technology.
- Figure 3.4 Schematic of redox flow batteries.
- Figure 3.5 Schematic of pumped storage.
- Figure 3.6 Schematic of flywheel power storage technologies.
- Figure 3.7 Schematic of compressed air power storage technologies.
- Figure 4.1 Schematic of centralized (top) and decentralized (bottom) solar thermal district heating system.
- Figure 4.2 Ducted air‐source heat pumps (a) and geothermal heat pumps (b).
- Figure 4.3 Schematic of geothermal heat pumps: (a) different collector types and connection used and (b) heating and cooling systems.
- Figure 5.1 Classification of heat storage technologies.
- Figure 5.2 Schematics of different latent heat storage systems.
- Figure 5.3 Schematic of thermochemical energy storage principles.
- Figure 5.4 Schematic of sorption‐based heat storage system.
- Figure 5.5 Energy density comparison of different materials with charging temperature.
- Figure 5.6 Energy storage capacity of combined 100 battery plants with two CSP plants in the United States.
- Figure 5.7 Schematic of a solar power tower plant.
- Figure 6.1 The most common biofuel production processes.
- Figure 6.2 A schematic of the anaerobic digestion process and its products.
- Figure 6.3 Biogas production on a farm processing cow dung.
- Figure 6.4 Classification of the most used biomethane production technologies.
- Figure 6.5 A schematic of the gasification and upgrading processes and its products.
- Figure 6.6 Classification of mature bioethanol production technologies.
- Figure 6.7 Process flows of bioethanol production through gasification syngas fermentation of lignocellulosic feedstocks.
- Figure 6.8 Process flows of bioethanol production through enzymatic fermentation of lignocellulosic feedstocks.
- Figure 6.9 Classification of mature biodiesel production technologies.
- Figure 6.10 Process flow of basic esterification process.
- Figure 6.11 Alcohol‐to‐jet fuel pathway.
- Figure 6.12 Block diagram of fast pyrolysis and upgrading processes.
- Figure 6.13 Block diagram of hydrothermal liquefaction and upgrading processes.
- Figure 6.14 Block diagram of gasification and FT with hydrotreating processes for biofuel production.
- Figure 6.15 Process flow of microalgae transesterification for biodiesel production.
- Figure 6.16 Process flow of microalgae hydrotreating for biofuel production.
- Figure 6.17 Process flow of gasification mixed with CCUS for power generation (top) and chemical production (bottom).
- Figure 7.1 Classification of low‐emission hydrogen production technologies.
- Figure 7.2 Classification of hydrogen production technologies
- Figure 7.3 Schematic of methane steam reforming process for hydrogen production in the presence of Ni with the support of TiO2.
- Figure 7.4 Block diagram of hydrogen production through natural gas autothermal reforming.
- Figure 7.5 Block diagram of hydrogen production from gasification syngas using membrane or pressure swing adsorption.
- Figure 7.6 Schematic of hydrogen production through methane pyrolysis.
- Figure 7.7 Environmental impact assessment of a ton hydrogen production through the gasification...
| Erscheint lt. Verlag | 23.2.2024 |
|---|---|
| Sprache | englisch |
| Themenwelt | Naturwissenschaften ► Chemie |
| ISBN-10 | 1-119-98219-7 / 1119982197 |
| ISBN-13 | 978-1-119-98219-7 / 9781119982197 |
| Haben Sie eine Frage zum Produkt? |
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