Multiscale design and analysis of CO2 capture, transport and storage networks

Energy Procedia

Volumn 37, Issue , 2013, Pages 2552-2561

  Alhajaj, Ahmed ^a   Mac Dowell, Niall ^a   Shah, Nilay ^a  

^a IMPERIAL COLLEGE LONDON   (United Kingdom)

Author keywords

CCS model; Multiscale model

Indexed keywords

EID: 84898761949     PISSN: 18766102     EISSN: None     Source Type: Conference Proceeding    
DOI: 10.1016/j.egypro.2013.06.138     Document Type: Conference Paper

References (26)

1. 2capture technologies, Energy & Environmental Science, 3 (2010) 1645-1669.
2. M. Odenberger, F. Johnsson, Pathways for the European electricity supply system to 2050 The role of CCS to meet stringent CO2 reduction targets, International Journal of Greenhouse Gas Control, 4 (2010) 327-340.
3. M. Odenberger, T. Unger, F. Johnsson, Pathways for the North European electricity supply, Energy Policy, 37 (2009) 1660-1677.
4. P. Rafaj, S. Kypreos, Internalisation of external cost in the power generation sector: Analysis with Global Multi-regional MARKAL model, Energy Policy, 35 (2007) 828-843.
5. M. Wise, J. Dooley, R. Dahowski, C. Davidson, Modeling the impacts of climate policy on the deployment of carbon dioxide capture and geologic storage across electric power regions in the United States, International Journal of Greenhouse Gas Control, 1 (2007) 261-270.
6. M.A. Wise, J.J. Dooley, The value of post-combustion carbon dioxide capture and storage technologies in a world with uncertain greenhouse gas emissions constraints, International Journal of Greenhouse Gas Control, 3 (2009) 39-48.
7. L. Zhu, Y. Fan, A real options based CCS investment evaluation model: Case study of China's Power generation sector, Applied Energy, 88 (2011) 4320-4333.
8. 2Capture Systems, Industrial & Engineering Chemistry Research, 45 (2005) 2421-2429.
9. 2capture from power plants: Part II. A parametric study of the economical performance based on mono-ethanolamine, International Journal of Greenhouse Gas Control, 1 (2007) 135-142.
10. 2capture from power plants: Part I. A parametric study of the technical performance based on monoethanolamine, International Journal of Greenhouse Gas Control, 1 (2007) 37-46.
11. F. van Bergen, J. Gale, K.J. Damen, A.F.B. Wildenborg, Worldwide selection of early opportunities for CO2-enhanced oil recovery and CO2-enhanced coal bed methane production, Energy, 29 (2004) 1611-1621.
12. 2geological storage potential and matching of emission sources to potential sinks, Energy, 29 (2004) 1623-1631.
13. R.S. Middleton, J.M. Bielicki, A scalable infrastructure model for carbon capture and storage: SimCCS, Energy Policy, 37 (2009) 1052-1060.
14. 2networks, in: Chemical Engineering and Chemical Technology, Imperial College London, London, 2008.
15. A. Galindo, L.A. Davies, A. Gil-Villegas, G. Jackson, The thermodynamics of mixtures and the corresponding mixing rules in the SAFT-VR approach for potentials of variable range, Molecular Physics, 93 (1998) 241-252.
16. A. Gil-Villegas, A. Galindo, P.J. Whitehead, S.J. Mills, G. Jackson, A.N. Burgess, Statistical associating fluid theory for chain molecules with attractive potentials of variable range, J. Chem. Phys., 106 (1997) 4168-4186.
17. N. Mac Dowell, F. Llovell, C.S. Adjiman, G. Jackson, A. Galindo, Modeling the Fluid Phase Behavior of Carbon Dioxide in Aqueous Solutions of Monoethanolamine Using Transferable Parameters with the SAFT-VR Approach, Industrial & Engineering Chemistry Research, 49 (2010) 1883-1899.
18. N. Mac Dowell, F.E. Pereira, F. Llovell, F.J. Blas, C.S. Adjiman, G. Jackson, A. Galindo, Transferable SAFT-VR Models for the Calculation of the Fluid Phase Equilibria in Reactive Mixtures of Carbon Dioxide, Water, and n-Alkylamines in the Context of Carbon Capture, The Journal of Physical Chemistry B, 115 (2011) 8155-8168.
19. J. Rodriguez, N. Mac Dowell, F. Llovell, C.S. Adjiman, G. Jackson, A. Galindo, Modelling the fluid phase behaviour of aqueous mixtures of multifunctional alkanolamines and carbon dioxide using transferable parameters with the SAFT-VR approach, Molecular Physics, 110 (2012) 1325-1348.
20. R. Taylor, R. Krishna, Multicomponent mass transfer, John Wiley, New York; Chichester, 1993.
21. A. Almansoori, N. Shah, Design and Operation of a Future Hydrogen Supply Chain: Snapshot Model, Chemical Engineering Research and Design, 84 (2006) 423-438.
22. N. Shah, Process industry supply chains: Advances and challenges, Computers & Chemical Engineering, 29 (2005) 1225-1236.
23. P. Tsiakis, N. Shah, C.C. Pantelides, Design of Multi-echelon Supply Chain Networks under Demand Uncertainty, Industrial & Engineering Chemistry Research, 40 (2001) 3585-3604.
24. S.T. McCoy, E.S. Rubin, An engineering-economic model of pipeline transport of CO2 with application to carbon capture and storage, International Journal of Greenhouse Gas Control, 2 (2008) 219- 229.
25. S. Nader, Paths to a low-carbon economy The Masdar example, Energy Procedia, 1 (2009) 3951- 3958.
26. D.J. Beecy, V.A. Kuuskraa, Basin strategies for linking CO2 enhanced oil recovery and storage of CO2 emissions, in: E.S. Rubin, D.W. Keith, C.F. Gilboy, M. Wilson, T. Morris, J. Gale, D.W.K.C.F.G.M.W.T.M.J.G. K. ThambimuthuA2 - E.S. Rubin, K. Thambimuthu (Eds.) Greenhouse Gas Control Technologies 7, Elsevier Science Ltd, Oxford, 2005, pp. 351-359.