Thermodynamic analysis of a novel energy storage system with carbon dioxide as working fluid

Renewable Energy

Volumn 99, Issue , 2016, Pages 682-697

  Zhang, Yuan ^a,b   Yang, Ke ^a,b   Hong, Hui ^a   Zhong, Xiaohui ^a,b   Xu, Jianzhong ^a,b  

^a INSTITUTE OF ENGINEERING THERMOPHYSICS   (China)

^b INSTITUTE OF GEOLOGY AND GEOPHYSICS   (China)

Author keywords

Compressed Air Energy Storage; Energy storage; System design; Thermodynamic analysis; Transcritical carbon dioxide Brayton cycle

Indexed keywords

AIR; BRAYTON CYCLE; CARBON DIOXIDE; COMPRESSED AIR; ENERGY STORAGE; FLUIDS; PRESSURE VESSELS; SYSTEMS ANALYSIS; THERMOANALYSIS; THERMODYNAMIC PROPERTIES; THERMODYNAMICS;

COMPRESSED AIR ENERGY STORAGES (CAES); ENERGY STORAGE DENSITY; ENERGY STORAGE SYSTEMS; GEOLOGICAL FORMATION; PARAMETRIC -ANALYSIS; SYSTEM OPTIMIZATIONS; THERMO DYNAMIC ANALYSIS; TRANSCRITICAL CARBON DIOXIDE;

COMPRESSED AIR ENERGY STORAGE;

CARBON DIOXIDE; COMPRESSED AIR; DESIGN METHOD; ENERGY EFFICIENCY; IDENTIFICATION KEY; OPTIMIZATION; PARAMETERIZATION; PERFORMANCE ASSESSMENT; STORAGE; THERMODYNAMICS; TURBINE;

EID: 84979306611     PISSN: 09601481     EISSN: 18790682     Source Type: Journal    
DOI: 10.1016/j.renene.2016.07.048     Document Type: Article

References (33)

1. [1] Wang, X., Palazoglu, A., El-Farra, N.H., Operational optimization and demand response of hybrid renewable energy systems. Appl. Energy 143 (2015), 324–335.
2. [2] Abbaspour, M., Satkin, M., Mohammadi-Ivatloo, B., Lotfi, F.H., Noorollahi, Y., Optimal operation scheduling of wind power integrated with compressed air energy storage (CAES). Renew. Energy 51 (2013), 53–59.
3. [3] Swierczynski, M., Teodorescu, R., Rasmussen, C.N., Rodriguez, P., Vikelgaard, H., Overview of the energy storage systems for wind power integration enhancement. Industrial Electronics (ISIE), 2010 IEEE International Symposium on, Bari, Italy, 2010.
4. [4] Xia, C., Zhou, Y., Zhou, S., Zhang, P., Wang, F., A simplified and unified analytical solution for temperature and pressure variations in compressed air energy storage caverns. Renew. Energy 74 (2015), 718–726.
5. [5] Zhao, P., Gao, L., Wang, J.F., Dai, Y.P., Energy efficiency analysis and off-design analysis of two different discharge modes for compressed air energy storage system using axial turbines. Renew. Energy 85 (2016), 1164–1177.
6. [6] Arabkoohsar, A., Machado, L., Farzaneh-Gord, M., Koury, R.N.N., Thermo-economic analysis and sizing of a PV plant equipped with a compressed air energy storage system. Renew. Energy 83 (2015), 491–509.
7. [7] Desrues, T., Ruer, J., Marty, P., Fourmigué, J.F., A thermal energy storage process for large scale electric applications. Appl. Therm. Eng. 30 (2010), 425–432.
8. [8] Grazzini, G., Milazzo, A., Thermodynamic analysis of CAES/TES systems for renewable energy plants. Renew. Energy 33 (2008), 1998–2006.
9. [9] Jakiel, C., Zunft, S., Nowi, A., Adiabatic compressed air energy storage plants for efficient peak load power supply from wind energy: the European project AA-CAES. Int. J. Energy Technol. Policy 5 (2007), 296–306.
10. [10] Schulte, R.H., Critelli, N., Holst, K., Huff, G., Lessons from Iowa: development of a 270 megawatt compressed air energy storage project in midwest Independent System Operator. 2012.
11. [11] Chen, H., Ding, Y., Peters, T., Berger, F., A Method of Storing Energy and a Cryogenic Energy Storage System. WO/2007/096656, 2007.
12. [12] Morgan, R., Nelmes, S., Gibson, E., Brett, G., Liquid air energy storage – analysis and first results from a pilot scale demonstration plant. Appl. Energy 137 (2015), 845–853.
13. [13] Guizzi, G.L., Manno, M., Tolomei, L.M., Vitali, R.M., Thermodynamic analysis of a liquid air energy storage system. Energy 93 (2015), 1639–1647.
14. [14] Wang, M.K., Zhao, P., Wu, Y., Dai, Y.P., Performance analysis of a novel energy storage system based on liquid carbon dioxide. Appl. Therm. Eng. 91 (2015), 812–823.
15. [15] Hemrle, J., Kaufmann, L., Mercangöz, M., Thermoelectric Energy Storage System Having Two Thermal Baths and Method for Storing Thermoelectric Energy. WO2010118915, 2009.
16. [16] Liu, J., Chen, H., Xu, Y., Wang, L., Tan, C., A solar energy storage and power generation system based on supercritical carbon dioxide. Renew. Energy 64 (2014), 43–51.
17. [17] Chen, H.J., Goswami, D.Y., Stefanakos, E.K., A review of thermodynamic cycles and working fluids for the conversion of low-grade heat. Renew. Sust. Energy Rev. 14 (2010), 3059–3067.
18. 2 Power Cycle Symposium, Boulder, Colorado, 2011.
19. 2 cycles. Energy 45 (2012), 407–415.
20. [20] Morandin, M., Maréchal, F., Mercangöz, M., Buchter, F., Conceptual design of a thermo-electrical energy storage system based on heat integration of thermodynamic cycles – Part A: methodology and base case. Energy 45 (2012), 375–385.
21. [21] Morandin, M., Maréchal, F., Mercangöz, M., Buchter, F., Conceptual design of a thermo-electrical energy storage system based on heat integration of thermodynamic cycles – Part B: alternative system configurations. Energy 45 (2012), 386–396.
22. 2 cycles with TES (thermal energy storage) for electricity storage. Energy 49 (2013), 484–501.
23. 2 cycle. Energy 75 (2014), 204–215.
24. [24] Wang, M.K., Zhao, P., Wu, Y., Dai, Y.P., Performance analysis of energy storage system based on liquid carbon dioxide with different configurations. Energy 93 (2015), 1931–1942.
25. [25] Kimball, K.J., Clementoni, E.M., Supercritical carbon dioxide brayton power cycle development overview. ASME Turbo Expo 2012: Turbine Technical Conference and Exposition, Copenhagen, Denmark, 2012.
26. [26] Liu, J.L., Wang, J.H., A comparative research of two adiabatic compressed air energy storage systems. Energy Convers. Manag. 108 (2016), 566–578.
27. 2 Bulk Delivery System. 2008, Delaware, Newark.
28. [28] Wang, K., Sun, J., Song, P., Experimental study of cryogenic liquid turbine expander with closed-loop liquefied nitrogen system. Cryogenics 67 (2015), 4–14.
29. [29] Dincer, I., Rosen, M.A., Exergy: Energy, Environment and Sustainable Development. second ed., 2012, Elsevier Science Ltd, Oxford, UK.
30. [30] Lemmon, E.W., Huber, M.L., McLinden, M.O., NIST Standard Reference Database 23: Reference Fluid Thermodynamic and Transport Properties-REFPROP. 2010 version 9.0.
31. [31] Succar, S., Williams, R.H., Compressed Air Energy Storage: Theory, Resources, and Applications for Wind Power. 2008, Princeton University.
32. [32] Zhang, Y., Yang, K., Li, X.M., Xu, J.Z., The thermodynamic effect of thermal energy storage on compressed air energy storage system. Renew. Energy 50 (2013), 227–235.
33. [33] Navarro, L., de Gracia, A., Colclough, S., Browne, M., McCormack, S.J., Griffiths, P., Cabeza, L.F., Thermal energy storage in building integrated thermal systems: a review. Part 1. active storage systems. Renew. Energy 88 (2016), 526–547.