Fischer-Tropsch biofuels production from syngas obtained by supercritical water reforming of the bio-oil aqueous phase

Energy Conversion and Management

Volumn 150, Issue , 2017, Pages 599-613

  Campanario, F J ^a   Gutierrez Ortiz F J ^a  

^a UNIVERSITY OF SEVILLE   (Spain)

Author keywords

Bio oil; Biofuel; Fischer Tropsch; Reforming; Supercritical Water; Syngas

Indexed keywords

BIOFUELS; CARBON DIOXIDE; COMPUTER SOFTWARE; DISTILLATION COLUMNS; REFINING; REFORMING REACTIONS; SENSITIVITY ANALYSIS; SYNTHESIS GAS; TEMPERATURE;

BIO OIL; ENERGY SELF-SUFFICIENCY; FISCHER TROPSCH; FISCHER-TROPSCH REACTORS; PRESSURE SWING ADSORPTION SYSTEMS; SUPERCRITICAL WATER; SUPERCRITICAL WATER REFORMING; SYN-GAS;

FISCHER-TROPSCH SYNTHESIS;

EID: 85029158182     PISSN: 01968904     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.enconman.2017.08.053     Document Type: Article

References (51)

1. Zwart, R.W.R., Boerritger, H., High efficiency co-production of synthetic natural gas (SNG) and Fischer-Tropsch (FT) transportation fuels from biomass. Energy Fuel 19 (2005), 591–597.
2. Selvatico, D., Lanzini, A., Santarelli, M., Low temperature Fischer-Tropsch fuels from syngas: Kinetic modeling and process simulation of different plant configurations. Fuel 186 (2016), 544–560.
3. Sudiro, M., Bertucco, A., Production of synthetic gasoline and diesel fuel by alternative processes using natural gas and coal: Process simulation and optimization. Energy 34 (2009), 2206–2214.
4. Saeidi, S., Nikoo, M.K., Mirvakili, A., Bahrani, S., Amin, N.A.S., Rahimpour, M.R., Recent advances in reactors for low-temperature Fischer-Tropsch synthesis: process intensification perspective. Rev Chem Eng 31 (2015), 209–238.
5. van der Laan, G.P., Kinetics, selectivity and scale up of the Fischer-Tropsch synthesis. Dissertation. 1999, University of Groningen.
6. Siew, K., Sadhuklan, J., Techno-economic performance analysis of bio-oil based Fischer-Tropsch and CHP synthesis platform. Biomass Bioenerg 35 (2011), 3218–3234.
7. Gutiérrez Ortiz, F.J., Ollero, P., Serrera, A., Sanz, A., Thermodynamic study of the supercritical water reforming of glycerol. Int J Hydrogen Energy 36 (2011), 8994–9013.
8. Gutiérrez Ortiz, F.J., Serrera, A., Galera, S., Ollero, P., Experimental study of the supercritical water reforming of glycerol without the addition of a catalyst. Energy 56 (2013), 193–206.
9. Gutiérrez Ortiz, F.J., Campanario, F.J., Aguilera, P.G., Ollero, P., Hydrogen production from supercritical water reforming of glycerol over nickel catalysts. Energy 84 (2015), 634–642.
10. Gutiérrez Ortiz, F.J., Campanario, F.J., Aguilera, P.G., Ollero, P., Supercritical water reforming of glycerol: Performance of Ru and Ni catalysts on Al2O3 support. Energy 96 (2016), 561–568.
11. Gutiérrez Ortiz, F.J., Campanario, F.J., Ollero, P., Turnover rates for the supercritical water reforming of glycerol on supported Ni and Ru catalysts. Fuel 180 (2016), 417–423.
12. Bouchy, C., Hastoy, G., Guillon, E., Martens, J.A., Fischer-Tropsch wax upgrading via hydrocracking and selective hydroisomerization. Oil Gas Sci Technol 64 (2009), 91–112.
13. Sie, S.T., Senden, M.M.G., Van Wechem, H.M.H., Conversion of natural gas to transportation fuels via the shell middle distillate synthesis process (SMDS). Catal Today 8 (1991), 371–394.
14. Zhu, M., Wachs, I.E., Determining number of active sites and TOF for the high-temperature water gas shift reaction by iron oxide based catalysts. ACS Catal, 6, 2016.
15. Gutiérrez Ortiz, F.J., Serrera, A., Galera, S., Ollero, P., Methanol synthesis from syngas obtained by supercritical water reforming of glycerol. Fuel 105 (2013), 739–751.
16. Schakel, W., Oreggioni, G., Singh, B., Strømman, A., Ramírez, A., Assessing the techno-environmental performance of CO2 utilization via dry reforming of methane for the production of dimethyl ether. J CO2 Util 16 (2016), 138–149.
17. Ermaloev, I.S., Ermaloev, V.S., Mordkovich, V.Z., Efficiency of gas-to-liquids technology with different synthesis gas production methods. Ind Eng Chem Res 53 (2014), 2758–2763.
18. Gopaul, S.G., Dutta, A., Dry reforming of multiple biogas types for syngas production simulated using Aspen Plus: The use of partial oxidation and hydrogen combustion to achieve thermo-neutrality. Int J Hydrogen Energy 40 (2015), 6307–6318.
19. Zhang, J., Webley, P.A., Cycle development and design CO2 capture from flue gas by vacuum swing adsorption. Environ Sci Technol 42 (2008), 563–569.
20. Song, H.S., Ramkrishna, D., Trinh, S., Wright, H., Operating strategies for Fischer-Tropsch reactors: a model-directed study. Kor J Chem Eng 21 (2004), 308–317.
21. Todic, B., Bhatelia, T., Froment, G.F., Ma, W., Jacobs, G., Davis, B.H., et al. Kinetic model of Fischer−Tropsch synthesis in a slurry reactor on Co−Re/Al2O3 catalyst. Ind Eng Chem Res 52 (2013), 669–679.
22. Schulz, H., Claeys, M., Kinetic modelling of Fischer-Tropsch product distributions. Appl Catal 186 (1990), 91–107.
23. Van Berge, P.J., Cobalt as an alternative Fischer-Tropsch catalyst to iron for the production of middle distillates. Stud Surf Sci Catal 107 (1997), 207–212.
24. Kraum, M., Fischer-Tropsch synthesis on supported cobalt-based catalysts: influence of various preparation methods and supports on catalyst activity and chain growth probability. Dissertation. 1999, Ruhr-Universität Bochum.
25. Iliuta, I., Larachi, F., Anfray, J., Dromard, N., Schweich, D., Multicomponent multicompartment model for Fischer-Tropsch SCBR. AIChE J 53 (2007), 2062–2083.
26. Er-rbib, H., Bouallou, C., Werkoff, F., Production of synthetic gasoline and diesel fuel from dry reforming of methane. Energy Procedia 29 (2012), 156–165.
27. Pellegrini, L., Locatelli, S., Rasella, S., Bonomi, S., Calemma, V., Modeling of Fischer-Tropsch products hydrocracking. Chem Eng Sci 59 (2004), 4781–4787.
28. Sun, C., Zhan, T., Pfeifer, P., Dittmeyer, R., Influence of Fischer-Tropsch synthesis (FTS) and hydrocracking (HC) conditions on the product distribution of an integrated FTS-HC process. Chem Eng J 310 (2017), 272–281.
29. Regali, F., Hydroconversion of model Fischer-Tropsch wax over noble metal/silica-alumina catalysts. Dissertation. 2013, KTH Royal Institute of Technology in Stockholm.
30. Brosius, R., Fletcher, J., Hydrocracking under Fischer-Tropsch conditions; the effect of CO on the mass transfer resistance by metal clusters. J Catal 317 (2014), 318–325.
31. Froment, G.F., Kinetics of the hydroisomerization and hydrocracking of paraffins on a platinum containing bifunctional Y-zeolite. Catal Today 1 (1987), 455–473.
32. Tiong, Sie S., Acid-catalyzed cracking of paraffinic hydrocarbons. 3. Evidence for the protonated cyclopropane mechanism from hydrocracking/hydroisomerization experiments. Ind Eng Chem Res 32 (1993), 403–408.
33. Kumar, H., Mechanistic Kinetic Modeling of the Hydrocracking of Complex Feedstocks. Dissertation. 2006, Indian Institute of Technology & Texas University.
34. Oasmaa, A., Meier, D., Norms and standards for fast pyrolysis liquids 1. Round robin test. J Anal Appl Pyroly 73 (2005), 323–334.
35. Marker, T.L., Opportunities for biorenewables in oil refineries. 2005, U.S. Department of energy, Office of Energy Efficiency and Renewable Energy.
36. Manganaro, J.L., Lawal, A., Economics of thermochemical conversion of crop residue to liquid transportation fuel. Energy Fuel 26 (2012), 2442–2453.
37. Farag IH, LaClair CE, Barrett CJ. Technical, environmental and economic feasibility of bio-oil in New Hampshire's North Country. Chemical Engineering Dept, University of New Hampshire (UNH), Durham, NH, USA.
38. Dermibas, A., The influence of temperature on the yields of compounds existing in bio-oils obtained from biomass samples via pyrolysis. Fuel Process Technol 88 (2007), 591–597.
39. Yang, S.I., Wu, M.S., Wu, C.Y., Application of biomass fast pyrolysis part I: Pyrolysis characteristics and products. Energy 66 (2014), 162–171.
40. Balat, M., Balat, M., Kırtay, E., Balat, H., Main routes for the thermo-conversion of biomass into fuels and chemicals. Part 1: Pyrolysis systems. Energy Convers Manage 50 (2009), 3147–3157.
41. Takahashi, K., Satoh, H., Satoh, T., Kakuchi, T., Miura, M., Sasaki, A., et al. Formation kinetics of levoglucosan from glucose in high temperature water. Chem Eng J 153 (2011), 170–174.
42. Gutiérrez Ortiz, F.J., Campanario, F.J., Ollero, P., Supercritical water reforming of model compounds of bio-oil aqueous phase: Acetic acid, acetol, butanol and glucose. Chem Eng J 298 (2016), 243–258.
43. Klerk A. Fischer-Tropsch Refining. Wiley-VCH Verlag & Co. KGaA, Boschstr. 12, 69469 Weinheim, Germany; 2011.
44. Hamelinck, C.N., Outlook for advanced biofuels. Dissertation. 2004, Univ. Utrecht.
45. Cao, C., Hu, J., Li, S., Wilcox, W., Wang, Y., Intensified Fischer-Tropsch synthesis process with microchannel catalytic reactors. Catal Today 140 (2009), 149–156.
46. Guettel, R., Turek, T., Comparison of different reactor types for low temperature Fischer-Tropsch synthesis: a simulation study. Chem Eng Sci 64 (2009), 955–964.
47. Zennaro, R., Tagliabue, M., Bartholomew, C.H., Kinetics of Fischer-Tropsch synthesis on titania-supported cobalt. Catal Today 58 (2000), 309–319.
48. Ma, W., Jacobs, G., Sparks, D.E., Spicer, R.L., Davis, B.H., Klettlinger, J.L.S., et al. Fischer-Tropsch synthesis: kinetics and water effect study over 25% Co/Al2O3 catalysts. Catal Today 228 (2014), 158–166.
49. Xiang, D., Yang, S., Qian, Y., Techno-economic analysis and comparison of coal based olefins processes. Energy Convers Manage 110 (2016), 33–41.
50. Leibbrandt, N., Aboyade, A., Knoetze, J., Görgens, J., Process efficiency of biofuel production via gasification and Fischer-Tropsch synthesis. Fuel 109 (2013), 484–492.
51. Zacher, A.H., Olarte, M.V., Santosa, D.M., Elliott, D.C., Jones, S.B., A review and perspective of recent bio-oil hydrotreating research. Green Chem 16 (2014), 491–515.