The energetic performance of a novel hybrid solar thermal & chemical looping combustion plant

Applied Energy

Volumn 132, Issue , 2014, Pages 74-85

  Jafarian, Mehdi ^a   Arjomandi, Maziar ^a   Nathan, Graham J ^a  

^a UNIVERSITY OF ADELAIDE   (Australia)

Author keywords

Chemical looping combustion; Combine cycles; Hybrid systems; Power generation; Solar energy

Indexed keywords

AFTERBURNERS (ENGINE); CARBON DIOXIDE; COMBUSTION; COMPUTER SOFTWARE; GAS TURBINES; HYBRID SYSTEMS; METHANE; POWER GENERATION; SOLAR ENERGY; SOLAR HEATING;

ASPEN PLUS SOFTWARE; CHEMICAL LOOPING COMBUSTION; ELECTRICAL EFFICIENCY; EXERGY EFFICIENCIES; FIRST LAW EFFICIENCY; GAS TURBINE COMBINED CYCLE; GAS TURBINE INLET TEMPERATURE; OPERATING PARAMETERS;

SENSITIVITY ANALYSIS;

COMBUSTION; ENERGETICS; METHANE; PERFORMANCE ASSESSMENT; POWER GENERATION; SOFTWARE; SOLAR POWER;

AUSTRALIA; PORT AUGUSTA; SOUTH AUSTRALIA;

EID: 84900533536     PISSN: 03062619     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.apenergy.2014.06.052     Document Type: Article

References (45)

1. Jafarian M., Arjomandi M., Nathan G.J. A hybrid solar and chemical looping combustion system for solar thermal energy storage. Appl Energy 2013, 103:671-678.
2. Jafarian M., Arjomandi M., Nathan G.J. A solar hybrid chemical looping combustion power cycle with a high solor share. Appl Energy 2014, 126:69-77.
3. Jafarian M, Nathan GJ, Arjomandi M. A hybrid solar and chemical looping combustion system, Provisional Patent Application No. 2013903807, Adelaide Research and Innovation Pty. Ltd.; 2013 [Priority Date: 02.10.2013].
4. Adanez J., Abad A., Garcia-Labiano F., Gayan P., de Diego L.F. Progress in Chemical-Looping Combustion and Reforming technologies. Prog Energy Combust Sci 2012, 38:215-282.
5. Abad A., Adánez J., García-Labiano F., de Diego L.F., Gayán P., Celaya J. Mapping of the range of operational conditions for Cu-, Fe-, and Ni-based oxygen carriers in chemical-looping combustion. Chem Eng Sci 2007, 62:533-549.
6. 2 capture and carbonaceous fuel conversion - prospect and opportunity. Energy Environ Sci 2012, 5:7254-7280.
7. Hong H., Jin H. A novel solar thermal cycle with chemical looping combustion. Int J Green Energy 2005, 2:397-407.
8. 2 separation using chemical-looping combustion by solar heat source. J SolEnergy Eng 2006, 128:275-284.
9. 2 recovery using methanol-fueled chemical looping combustion. J SolEnergy Eng 2010, 132:031002.
10. Jafarian M., Arjomandi M., Nathan G.J. The influence of high intensity solar radiation on the temperature and reduction of an oxygen carrier particle in hybrid chemical looping combustion. Chem Eng Sci 2013, 95:331-342.
11. 2 capture in power generation. Fuel 2005, 84:993-1006.
12. 2 capture. Energy 2007, 32:360-370.
13. Naqvi R, Bolland O, Brandvoll Ø, Helle K. Chemical looping combustion analysis of natural gas fired power cycles with inherent CO2 capture. In: Proceeding of ASME turbo expo. Vienna, Austria 2004.
14. th. Energy Convers Manage 2013, 76:323-331.
15. Bhargava R.K., Bianchi M., Pascale A., Negri di Montenegro G., Peretto A. Gas turbine based power cycles - a state-of-the-art review. Challenges of power engineering and environment 2007, 309-319. Springer, Berlin Heidelberg. K. Cen, Y. Chi, F. Wang (Eds.).
16. Chyu M.K. Recent advances in turbine heat transfer-with a view of transition to coal-gas based systems. J Heat Transfer 2012, 134:1-9.
17. Hischier I., Leumann P., Steinfeld A. Experimental and numerical analyses of a pressurized air receiver for solar-driven gas turbines. J SolEnergy Eng 2012, 134:021003.
18. Kribus A., Zaibel R., Carey D., Segal A., Karni J. A solar-driven combined cycle power plant. Sol Energy 1998, 62:121-129.
19. Schwarzbözl P., Buck R., Sugarmen C., Ring A., Marcos Crespo M.J., Altwegg P., et al. Solar gas turbine systems: design, cost and perspectives. Solar Energy 2006, 80:1231-1240.
20. Buck R., Brauning T., Denk T., Pfander M., Schwarzbozl P., Tellez F. Solar-hybrid gas turbine-based power tower systems (REFOS). J SolEnergy Eng 2002, 124:2-9.
21. 2 capture. Adv Environ Res 2003, 7:335-345.
22. 2 capture. J Eng Gas Turbines Power 2006, 128:525-534.
23. Eggers R. Industrial high pressure applications: processes, equipment, and safety 2012, Wiley.
24. Yazdanpanah M.M., Hoteit A., Forret A., Delebarre A., Gautheir T. Experimental investigation on a novel chemical looping combustion configuration. Oil Gas Sci Technol - Rev IFP Energies Nouvelles 2011, 66:265-275.
25. Svoboda K., Pohořelý M., Hartman M., Martinec J. Pretreatment and feeding of biomass for pressurized entrained flow gasification. Fuel Process Technol 2009, 90:629-635.
26. Johansson E., Lyngfelt A., Mattisson T., Johnsson F. Gas leakage measurements in a cold model of an interconnected fluidized bed for chemical-looping combustion. Powder Technol 2003, 134:210-217.
27. Ávila-Marín A.L. Volumetric receivers in solar thermal power plants with central receiver system technology: a review. Sol Energy 2011, 85:891-910.
28. Steinfeld A. Solar thermochemical production of hydrogen - a review. Sol Energy 2005, 78:603-615.
29. Slotte M., Romão I., Zevenhoven R. Integration of a pilot-scale serpentinite carbonation process with an industrial lime kiln. Energy 2013, 62:142-149.
30. Khoo H.H., Sharratt P.N., Bu J., Yeo T.Y., Borgna A., Highfield J.G., et al. Carbon capture and mineralization in Singapore: preliminary environmental impacts and costs via LCA. Ind Eng Chem Res 2011, 50:11350-11357.
31. Smith J.M., Van Ness H., Abbott M.M. Introduction to chemical engineering thermodynamics 2005, McGraw-Hill Education.
32. Adánez J., Dueso C., de Diego L.F., García-Labiano F., Gayán P., Abad A. Methane combustion in a 500 Wth chemical-looping combustion system using an impregnated Ni-based oxygen carrier. Energy Fuels 2008, 23:130-142.
33. Steinfeld A., Larson C., Palumbo R., Foley Iii M. Thermodynamic analysis of the co-production of zinc and synthesis gas using solar process heat. Energy 1996, 21:205-222.
34. Sheu E.J., Mitsos A., Eter A.A., Mokheimer E.M., Habib M.A., Al-Qutub A. A review of hybrid solar-fossil fuel power generation systems and performance metrics. J SolEnergy Eng 2012, 134:041006.
35. Kolb G.J. Economic evaluation of solar-only and hybrid power towers using molten-salt technology. Sol Energy 1998, 62:51-61.
36. Hong H., Jin H., Ji J., Wang Z., Cai R. Solar thermal power cycle with integration of methanol decomposition and middle-temperature solar thermal energy. Sol Energy 2005, 78:49-58.
37. Dincer I., Rosen M.A. Exergy: energy, environment and sustainable development 2007, Elsevier Science.
38. Analysis of 10-years record Port Agusta Australia for Renewables SA.
39. 2 capture. Int J Greenhouse Gas Control 2007, 1:19-30.
40. Steinfeld A., Kuhn P., Reller A., Palumbo R., Murray J., Tamaura Y. Solar-processed metals as clean energy carriers and water-splitters. Int J Hydrogen Energy 1998, 23:767-774.
41. 4 particles in a 10kW chemical-looping combustor. Ind Eng Chem Res 2006, 45:5911-5919.
42. Gou C., Cai R., Hong H. A novel hybrid oxy-fuel power cycle utilizing solar thermal energy. Energy 2007, 32:1707-1714.
43. 2 capture for fossil fuel-fired power plants. Chem Eng Technol 2011, 34:163-172.
44. Jafarian M., Arjomandi M., Nathan G.J. Influence of the type of oxygen carriers on the performance of a hybrid solar chemical looping combustion system. Energy Fuels 2014, 28:2914-2924.
45. Hossain M.M., de Lasa H.I. Chemical-looping combustion (CLC) for inherent separations-a review. Chem Eng Sci 2008, 63:4433-4451.