Mature versus emerging technologies for CO₂ capture in power plants: Key open issues in post-combustion amine scrubbing and in chemical looping combustion

Abstract

Carbon capture and storage (CCS) have acquired an increasing importance in the debate on global warming as a mean to decrease the environmental impact of energy conversion technologies, by capturing the CO₂ produced from the use of fossil fuels in electricity generation and industrial processes. In this respect, post-combustion systems have received great attention as a possible near-term CO₂ capture technology that can be retrofitted to existing power plants. This capture technology is, however, energy-intensive and results in large equipment sizes because of the large volumes of the flue gas to be treated. To cope with the demerits of other CCS technologies, the chemical looping combustion (CLC) process has been recently considered as a solution for CO₂ separation. It is typically referred to as a technology without energy penalty. Indeed, in CLC the fuel and the combustion air are never mixed and the gases from the oxidation of the fuel (i.e., CO₂ and H₂O) leave the system as a separate stream and can be separated by condensation of H₂O without any loss of energy. The key issue for the CLC process is to find a suitable oxygen carrier, which provides the fuel with the activated oxygen needed for combustion. The aim of this work is to explore the feasibility of using perovskites as oxygen carriers in CLC and to consider the possible advantages with respect to the scrubbing process with amines, a mature post-combustion technology for CO₂ separation.

Graphical abstract

Keywords

CO₂ capture / monoethanolamine / chemical looping combustion / oxygen carrier / perovskites

References

[1] United Nations Framework Convention on Climate Change.FOCUS: Mitigation-Action on mitigation: Reducing emissions and enhancing sinks. Bonn: UNFCCC, 2014

[2] Lyngfelt A, Leckner B, Mattisson T. A fluidized-bed combustion process with inherent CO₂ separation: Application of chemical-looping combustion. Chemical Engineering Science, 2001, 56(10): 3101–3113

[3] Giuffrida A, Moioli S, Romano M C, Lozza G. Lignite-fired air-blown IGCC systems with pre-combustion CO₂ capture. International Journal of Energy Research, 2016, 40(6): 831–845

[4] Brandvoll Ø. Chemical looping combustion: Fuel conversion with inherent CO₂ capture. Dissertation for the Doctoral Degree. Trondheim: Norwegian University of Science and Technology, 2005

[5] Global Carbon Capture and Storage Institute. CO₂ capture technologies: Post-combustion capture (PCC). 2012

[6] Leung D Y, Caramanna G, Maroto-Valer M M. An overview of current status of carbon dioxide capture and storage technologies. Renewable & Sustainable Energy Reviews, 2014, 39: 426–443

[7] Elwell L C, Grant W S. Technology options for capturing CO₂. Power, 2006, 150(8): 60–65

[8] Chaffee A L, Knowles G P, Liang Z, Zhang J, Xiao P, Webley P A. CO₂ capture by adsorption: Materials and process development. International Journal of Greenhouse Gas Control, 2007, 1(1): 11–18

[9] Wolf J, Anheden M, Yan J. Comparison of nickel-and iron-based oxygen carriers in chemical looping combustion for CO₂ capture in power generation. Fuel, 2005, 84(7): 993–1006

[10] Hoffmann S, Bartlett M, Finkenrath M, Evulet A, Ursin T P. Performance and cost analysis of advanced gas turbine cycles with precombustion CO₂ capture. Journal of Engineering for Gas Turbines and Power, 2009, 131(2): 021701

[11] Kanniche M, Gros-Bonnivard R, Jaud P, Valle-Marcos J, Amann J M, Bouallou C. Pre-combustion, post-combustion and oxy-combustion in thermal power plant for CO₂ capture. Applied Thermal Engineering, 2010, 30(1): 53–62

[12] Hossain M M, de Lasa H I. Chemical-looping combustion (CLC) for inherent CO₂ separations—a review. Chemical Engineering Science, 2008, 63(18): 4433–4451

[13] Cansolv Technologies Inc. Sask Power Boundary Dam 3-Project Update & Some Lessons Learned. 2013

[14] Ondrey G. CO₂ gets grounded. Chemical Engineering (Albany, N.Y.), 2011, 107(3): 41–45

[15] Yang H, Xu Z, Fan M, Gupta R, Slimane R B, Bland A E, Wright I. Progress in carbon dioxide separation and capture: A review. Journal of Environmental Sciences (China), 2008, 20(1): 14–27

[16] Chakma A. CO₂ capture processes—opportunities for improved energy efficiencies. Energy Conversion and Management, 1997, 38: S51–S56

[17] Veawab A, Aroonwilas A, Tontiwachwuthikul P. CO₂ absorption performance of aqueous alkanolamines in packed columns. Fuel Chemistry Division Preprints, 2002, 47(1): 49–50

[18] Pellegrini L A, Moioli S, Gamba S. Energy saving in a CO₂ capture plant by MEA scrubbing. Chemical Engineering Research & Design, 2011, 89(9): 1676–1683

[19] Aspen Hysys®. Bedford, MA: Aspen Technology, Inc., 2012

[20] Aspen Plus®. Bedford, MA: Aspen Technology, Inc., 2012

[21] Lewis W, Whitman W. Principles of gas absorption. Industrial & Engineering Chemistry, 1924, 16(12): 1215–1220

[22] King C J. Turbulent liquid phase mass transfer at free gas-liquid interface. Industrial & Engineering Chemistry Fundamentals, 1966, 5(1): 1–8

[23] Moioli S, Pellegrini L, Gamba S. Simulation of CO₂ capture by MEA scrubbing with a rate-based model. Procedia Engineering, 2012, 42: 1651–1661

[24] Dugas R E. Pilot plant study of carbon dioxide capture by aqueous monoethanolamine. Dissertation for the Doctoral Degree. Austin: University of Texas, 2006

[25] Moioli S, Pellegrini L A, Gamba S, Li B. Improved rate-based modeling of carbon dioxide absorption with aqueous monoethanolamine solution. Frontiers of Chemical Science and Engineering, 2014, 8(1): 123–131

[26] Nandy A, Loha C, Gu S, Sarkar P, Karmakar M K, Chatterjee P K. Present status and overview of chemical looping combustion technology. Renewable & Sustainable Energy Reviews, 2016, 59: 597–619

[27] Gilliland R E, Lewis W K. Production of pure carbon dioxide. US Patent, 2665972 A, 1954-01-12

[28] Ritcher H J, Knoche K F. Reversibility of combustion process. Efficiency and costing, second law analysis of process. ACS Symposium Series, 1983, 235: 71–85

[29] Ishida M, Zheng D, Akehata T. Evaluation of a chemical-looping-combustion power-generation system by graphic exergy analysis. Energy, 1987, 12(2): 147–154

[30] Ishida M, Jin H. A novel combustor based on chemical-looping reactions and its reaction kinetics. Journal of Chemical Engineering of Japan, 1994, 27(3): 296–301

[31] Johansson E, Mattisson T, Lyngfelt A, Thunman H A. 300W laboratory reactor system for chemical-looping combustion with particle circulation. Fuel, 2006, 85(10): 1428–1438

[32] Johansson E, Mattisson T, Lyngfelt A, Thunman H. Combustion of syngas and natural gas in a 300 W chemical-looping combustor. Chemical Engineering Research & Design, 2006, 84(9): 819–827

[33] Abad A, Mattisson T, Lyngfelt A, Rydén M. Chemical-looping combustion in a 300W continuously operating reactor system using a manganese-based oxygen carrier. Fuel, 2006, 85(9): 1174–1185

[34] Mattisson T, Lyngfelt A, Cho P. The use of iron oxide as an oxygen carrier in chemical-looping combustion of methane with inherent separation of CO₂. Fuel, 2001, 80(13): 1953–1962

[35] Koga Y, Harrison L. Comprehensive Chemical Kinetics. Bamford C H, Tipper C F H, Compton R G, eds. Amsterdam: Elsevier, 1984

[36] Richardson J, Turk B, Twigg M. Reduction of model steam reforming catalysts: Effect of oxide additives. Applied Catalysis A, General, 1996, 148(1): 97–112

[37] Richardson J, Scates R, Twigg M. X-ray diffraction study of the hydrogen reduction of NiO/α-Al₂O₃ steam reforming catalysts. Applied Catalysis A, General, 2004, 267(1): 35–46

[38] Utigard T, Wu M, Plascencia G, Marin T. Reduction kinetics of Goro nickel oxide using hydrogen. Chemical Engineering Science, 2005, 60(7): 2061–2068

[39] Sohn H, Szekely J. A structural model for gas-solid reactions with a moving boundary—III: A general dimensionless representation of the irreversible reaction between a porous solid and a reactant gas. Chemical Engineering Science, 1972, 27(4): 763–778

[40] Szekely J, Lin C, Sohn H. A structural model for gas-solid reactions with a moving boundary—V: An experimental study of the reduction of porous nickel-oxide pellets with hydrogen. Chemical Engineering Science, 1973, 28(11): 1975–1989

[41] Adanez J, Abad A, Garcia-Labiano F, Gayan P, Luis F. Progress in chemical-looping combustion and reforming technologies. Progress in Energy and Combustion Science, 2012, 38(2): 215–282

[42] Hossain M M. Fluidized bed chemical-looping combustion: Development of a bimetallic oxygen carrier and kinetic modeling. 2007

[43] Hossain M M, de Lasa H I. Reactivity and stability of Co-Ni/Al₂O₃ oxygen carrier in multicycle CLC. AIChE Journal, 2007, 53(7): 1817–1829

[44] Readman J E, Olafsen A, Larring Y, La Blom R. La_0.8Sr_0.2Co_0.2Fe_0.8O_3−δ as a potential oxygen carrier in a chemical looping type reactor, an in-situ powder X-ray diffraction study. Journal of Materials Chemistry, 2005, 15(19): 1931–1937

[45] Galinsky N, Sendi M, Bowers L, Li F. CaMn_1−xB_xO_3−δ (B= Al, V, Fe, Co, and Ni) perovskite based oxygen carriers for chemical looping with oxygen uncoupling (CLOU). Applied Energy, 2016, 174: 80–87

[46] Taylor D D, Schreiber N J, Levitas B D, Xu W, Whitfield P S, Rodriguez E E. Oxygen storage properties of La_1−xSr_xFeO_3−δ for chemical-looping reactions–an in-situ neutron and synchrotron X-ray study. Chemistry of Materials, 2016, 28(11): 3951–3960

[47] Abad A, García-Labiano F, Gayán P, de Diego L, Adánez J. Redox kinetics of CaMg_0.1Ti_0.125Mn_0.775O_2.9−δ for chemical looping combustion (CLC) and chemical looping with oxygen uncoupling (CLOU). Chemical Engineering Journal, 2015, 269: 67–81

[48] Naqvi R. Analysis of natural gas-fired power cycles with chemical looping combustion for CO₂ capture. Dissertation for the Doctoral Degree. Trondheim: Norwegian University of Science and Technology, 2006

[49] Linderholm C. CO₂ Capture using chemical-looping combustion—operational experience with gaseous and solid fuels. Dissertation for the Doctoral Degree. Gothenburg, Sweden: Chalmers University of Technology, 2011

[50] Rossetti I, Forni L. Catalytic flameless combustion of methane over perovskites prepared by flame-hydrolysis. Applied Catalysis B: Environmental, 2001, 33(4): 345–352

[51] Rossetti I, Biffi C, Forni L. Oxygen non-stoichiometry in perovskitic catalysts: Impact on activity for the flameless combustion of methane. Chemical Engineering Journal, 2010, 162(2): 768–775

[52] Rossetti I, Allieta M, Biffi C, Scavini M. Oxygen transport in nanostructured lanthanum manganites. Physical Chemistry Chemical Physics, 2013, 15(39): 16779–16787

[53] King D A. Thermal desorption from metal surfaces: A review. Surface Science, 1975, 47(1): 384–402

[54] de Jong A M, Niemantsverdriet J W. Thermal desorption analysis: Comparative test of ten commonly applied procedures. Surface Science, 1990, 233(3): 355–365

[55] Redhead P A. Thermal desorption of gases. Vacuum, 1962, 12(4): 203–211

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