A review of research facilities, pilot and commercial plants for solvent-based post-combustion CO2 capture: Packed bed, phase-change and rotating processes. (October 2021)
- Record Type:
- Journal Article
- Title:
- A review of research facilities, pilot and commercial plants for solvent-based post-combustion CO2 capture: Packed bed, phase-change and rotating processes. (October 2021)
- Main Title:
- A review of research facilities, pilot and commercial plants for solvent-based post-combustion CO2 capture: Packed bed, phase-change and rotating processes
- Authors:
- Nessi, Evie
Papadopoulos, Athanasios I.
Seferlis, Panos - Abstract:
- Highlights: Review of solvent-based capture plants in 37 locations world-wide. Solvents, energy requirements, equipment capacity, emissions, corrosion etc. are reported. Best practices and energy recovery modifications that reduce consumption are discussed. RPB and phase-change solvent facilities are reviewed, indicating need for scaling-up. Development status of large-scale plants in China is investigated. Abstract: Large-scale CO2 abatement is key to avoid the detrimental environmental impacts of increased CO2 emissions worldwide. Solvent-based absorption is a mature post-combustion capture technology for short- to medium-term implementation. However, high energetic requirements, capture costs and technical challenges have been prohibiting its wide industrial deployment. Extensive research efforts have enabled significant improvements that resulted in scaling-up of pilot plants to industrial-level systems and commercial installations. This work provides a detailed review of these activities for plants of different capacities in 37 locations worldwide. The presented information pertains to: a) baseline, packed bed, absorption/desorption flowsheets, originally developed for alkanolamines, b) flowsheets with significant structural modifications that increase the operating driving forces, c) flowsheets including modifications for phase-change solvents and d) flowsheets that incorporate rotating packed beds (RPB). Technical details are presented regarding tested solvents,Highlights: Review of solvent-based capture plants in 37 locations world-wide. Solvents, energy requirements, equipment capacity, emissions, corrosion etc. are reported. Best practices and energy recovery modifications that reduce consumption are discussed. RPB and phase-change solvent facilities are reviewed, indicating need for scaling-up. Development status of large-scale plants in China is investigated. Abstract: Large-scale CO2 abatement is key to avoid the detrimental environmental impacts of increased CO2 emissions worldwide. Solvent-based absorption is a mature post-combustion capture technology for short- to medium-term implementation. However, high energetic requirements, capture costs and technical challenges have been prohibiting its wide industrial deployment. Extensive research efforts have enabled significant improvements that resulted in scaling-up of pilot plants to industrial-level systems and commercial installations. This work provides a detailed review of these activities for plants of different capacities in 37 locations worldwide. The presented information pertains to: a) baseline, packed bed, absorption/desorption flowsheets, originally developed for alkanolamines, b) flowsheets with significant structural modifications that increase the operating driving forces, c) flowsheets including modifications for phase-change solvents and d) flowsheets that incorporate rotating packed beds (RPB). Technical details are presented regarding tested solvents, energetic performance, operating conditions, types and capacity of equipment, emissions, degradation and corrosion. It is observed that energy recovery in the stripper enables significant regeneration energy reduction, as proven in a commercial-scale plant. Equivalent performance has also been achieved with the chilled ammonia process in large-scale pilots. Liquid-liquid phase-change solvents and RPBs exhibit high potential for operating and capital expenditure reductions, but require significant scaling-up effort. Research in RPBs includes mainly lab-scale, mass transfer investigations. Several large-scale plants are being developed in China. … (more)
- Is Part Of:
- International journal of greenhouse gas control. Volume 111(2021)
- Journal:
- International journal of greenhouse gas control
- Issue:
- Volume 111(2021)
- Issue Display:
- Volume 111, Issue 2021 (2021)
- Year:
- 2021
- Volume:
- 111
- Issue:
- 2021
- Issue Sort Value:
- 2021-0111-2021-0000
- Page Start:
- Page End:
- Publication Date:
- 2021-10
- Subjects:
- Post-combustion CO2 capture -- Pilot plants -- Absorption/desorption -- Solvents -- Phase-change systems -- Rotating packed beds
e Porosity of packing material of RPB -- AAP Advanced Amines Process -- AFS Advanced flash stripper -- AM Additive manufacturing -- AMP 2-amino-2-methyl-1-propanol -- BD Boundary Dam -- CAP Chilled ammonia process -- CAPEX Capital Expenditures -- CCGT Combined Cycle Gas Turbine -- CHP Heat and Power plant -- DCC Direct Contact Cooler -- DEA Diethanolamine -- DEEA 2-(diethylamino)-ethanol -- DEG Diethylene glycol -- DETA Diethylenetriamine -- DMCA Dimethylcyclohexylamine -- DOE Department of energy -- ED Electrodialysis -- EDA Ethylenediamine -- EPDM Ethylene propylene diene monomer -- ESP Electrostatic Precipitation (or precipitator) -- EGR Exhaust Gas Recycle -- EOR Enhanced oil recovery -- FEED Front-end engineering design -- FGD Flue Gas Desulfurization -- H Total column height -- h Total packing height in column -- HEX Heat exchanger -- Hpck Packing height of RPBs -- HSS Heat stable salts -- I.D. Internal diameter of columns -- IPCCS Intergovernmental panel for carbon capture and storage -- KEPRI Korea Electric Power Research Institute -- KSAR Potassium salt of sarcosine -- KGa Gas mass transfer coefficient -- kLa Liquid side volumetric mass transfer coefficient -- L Length of rectangular column -- LCOE Levelized cost of electricity -- L/G Liquid-to-gas -- LVC Lean Vapor Compression -- MAPA 3-(methylamino)-propylamine -- MDEA N-methyldiethanolamine -- MEA Monoethanolamine -- MVR Mechanical vapor recompression -- NAS Non-aqueous solvent -- NCCC National Carbon Capture Center -- NG Natural gas -- NGCC Natural gas combined cycle -- NTU Number of transfer units -- HTU Height of transfer units -- O.D. Outer diameter/Inner Diameter/Height -- OPEX Operational Expenditures -- PCC Post combustion capture -- PHW Pressurized hot water -- PCO2 Partial pressure of CO2 in the flue gas -- PTFE Polytetrafluoroethylene -- PZ Piperazine -- RFCC Residue Fluid Catalytic Cracker -- RPB Rotating Packed Bed -- ri Inner radius of packing of RPB -- ro Outer radius of packing of RPB -- S1N N1-cyclohexylpropane-1, 3-diamine -- SARMAPA 3-(methylamino)propylamine/sarcosine -- SCR Selective Catalytic Reduction -- SEM Scanning Electron Microscope -- SRD Specific reboiler duty -- SRP Separations research program -- TVR Thermal vapor recompression -- VOC Volatile organic compounds -- Vpck Volume of packing material of RPB -- W Width of rectangular columns -- WESP Wet ESP -- WFGD Wet FGD
Greenhouse gases -- Environmental aspects -- Periodicals
Air -- Purification -- Technological innovations -- Periodicals
Gaz à effet de serre -- Périodiques
Gaz à effet de serre -- Réduction -- Périodiques
Air -- Purification -- Technological innovations
Greenhouse gases -- Environmental aspects
Periodicals
363.73874605 - Journal URLs:
- http://rave.ohiolink.edu/ejournals/issn/17505836/ ↗
http://www.sciencedirect.com/science/journal/17505836 ↗
http://www.elsevier.com/journals ↗ - DOI:
- 10.1016/j.ijggc.2021.103474 ↗
- Languages:
- English
- ISSNs:
- 1750-5836
- Deposit Type:
- Legaldeposit
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