La 0.6Sr 0.4Co 0.2Fe 0.8O 3-δ microtubular membranes for hydrogen production from water splitting

Journal of Membrane Science

Volumn 389, Issue , 2012, Pages 173-181

  Franca, Rafael V ^a   Thursfield, Alan ^a   Metcalfe, Ian S ^a  

^a NEWCASTLE UNIVERSITY   (United Kingdom)

Author keywords

Hydrogen production; Induction period; Microtubular membranes; Perovskite; Steam reforming

Indexed keywords

DENSE LAYER; ELECTRON CONDUCTING; FEED SIDE; GOOD STABILITY; INDUCTION PERIODS; MATERIAL BALANCE; MEMBRANE SURFACE; MICRO-TUBES; MICRO-TUBULAR; OPERATION ANALYSIS; OPERATION PERIOD; OUTLET GAS; OXYGEN FLUXES; OXYGEN PERMEATION; REACTION CONDITIONS; SYNGAS PRODUCTION; TEMPERATURE PROFILES; WATER SPLITTING;

COBALT; HYDROGEN; HYDROGEN PRODUCTION; MEMBRANES; METHANE; OXYGEN; OXYGEN PERMEABLE MEMBRANES; PERMEATION; PEROVSKITE; STEAM; STEAM ENGINEERING; STRONTIUM; SULFUR; SURFACE REACTIONS; SURFACES; SYNTHESIS GAS;

STEAM REFORMING;

HYDROGEN; METHANE; OXYGEN;

ARTICLE; GAS ANALYSIS; MEMBRANE REACTOR; MEMBRANE TRANSPORT; MICROTUBULE; PRIORITY JOURNAL; THERMODYNAMICS; WATER SPLITTING; WATER VAPOR; X RAY DIFFRACTION;

EID: 83855164002     PISSN: 03767388     EISSN: 18733123     Source Type: Journal    
DOI: 10.1016/j.memsci.2011.10.027     Document Type: Article

References (24)

1. Kodama T. High-temperature solar chemistry for converting solar heat to chemical fuels. Progress in Energy and Combustion Science 2003, 29:567-597.
2. Lede J., Lapicque F., Villermaux J., Cales B., Ounalli A., Baumard J.F., Anthony A.M. Production of hydrogen by direct thermal decomposition of water: preliminary investigations. International Journal of Hydrogen Energy 1982, 7:939-950.
3. 3 membrane. Solid State Ionics 1995, 79:366-370.
4. Balachandran U., Lee T.H., Dorris S.E. Hydrogen production by water dissociation using mixed conducting dense ceramic membranes. International Journal of Hydrogen Energy 2007, 32:451-456.
5. Balachandran U., Lee T.H., Wang S., Dorris S.E. Use of mixed conducting membranes to produce hydrogen by water dissociation. International Journal of Hydrogen Energy 2004, 29:291-296.
6. Jiang H., Cao Z., Schirrmeister S., Schiestel T., Caro J. A coupling strategy to produce hydrogen and ethylene in a membrane reactor. Angewandte Chemie International Edition 2010, 49:5656-5660.
7. 3-δ hollow-fiber membrane reactor with improved oxygen permeation. Chemistry: A European Journal 2010, 16:7898-7903.
8. Jiang H., Wang H., Liang F., Werth S., Schirrmeister S., Schiestel T., Caro J. Improved water dissociation and nitrous oxide decomposition by in situ oxygen removal in perovskite catalytic membrane reactor. Catalysis Today 2010, 156:187-190.
9. Jiang H., Wang H., Werth S., Schiestel T., Caro J. Simultaneous production of hydrogen and synthesis gas by combining water splitting with partial oxidation of methane in a hollow-fiber membrane reactor. Angewandte Chemie: International Edition 2008, 47:9341-9344.
10. Evdou A., Nalbandian L., Zaspalis V.T. Perovskite membrane reactor for continuous and isothermal redox hydrogen production from the dissociation of water. Journal of Membrane Science 2008, 325:704-711.
11. 3-δ perovskites as redox materials for application in a membrane reactor for simultaneous production of pure hydrogen and synthesis gas. Fuel 2010, 89:1265-1273.
12. Park C.Y., Lee T.H., Dorris S.E., Balachandran U. Hydrogen production from fossil and renewable sources using an oxygen transport membrane. International Journal of Hydrogen Energy 2010, 35:4103-4110.
13. 3-x as oxygen transport membrane for producing hydrogen via water splitting. ECS Transactions 2008, 13:393-403.
14. Lee T.H., Park C.Y., Dorris S.E., Balachandran U. Hydrogen production by steam dissociation using oxygen transport membranes. ECS Transactions 2008, 13:379-384.
15. Lankhorst M.H.R., Bouwmeester H.J.M., Verweij H. Thermodynamics and transport of ionic and electronic defects in crystalline oxides. Journal of the American Ceramic Society 1997, 80:2175-2198.
16. Tan X., Liu Y., Li K. Preparation of LSCF ceramic hollow-fiber membranes for oxygen production by a phase-inversion/sintering technique. Industrial & Engineering Chemistry Research 2004, 44:61-66.
17. Tan X., Liu Y., Li K. Mixed conducting ceramic hollow-fiber membranes for air separation. AIChE Journal 2005, 51:1991-2000.
18. Wang H., Tablet C., Schiestel T., Werth S., Caro J. Partial oxidation of methane to syngas in a perovskite hollow fiber membrane reactor. Catalysis Communications 2006, 7:907-912.
19. Thursfield A., Metcalfe I. Methane oxidation in a mixed ionic-electronic conducting ceramic hollow fibre reactor module. Journal of Solid State Electrochemistry 2006, 10:604-616.
20. 3-δ (0.3≤x≤0.8) mixed conducting materials. Journal of the European Ceramic Society 2009, 29:2831-2839.
21. York A.P.E., Xiao T., Green M.L.H. Brief overview of the partial oxidation of methane to synthesis gas. Topics in Catalysis 2003, 22:345-358.
22. Liu S., Gavalas G.R. Preparation of oxygen ion conducting ceramic hollow-fiber membranes. Industrial & Engineering Chemistry Research 2005, 44:7633-7637.
23. 3-δ ceramic hollow-fiber membranes for oxygen permeation. AIChE Journal 2006, 52:3452-3461.
24. ten Elshof J.E., Bouwmeester H.J.M., Verweij H. Oxidative coupling of methane in a mixed-conducting perovskite membrane reactor. Applied Catalysis A: General 1995, 130:195-212.