Effects of preparation method on cyclic stability and CO2 absorption capacity of synthetic CaO–MgO absorbent for sorption-enhanced hydrogen production
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[1] I. L. Muller,et al. Hydrogen production by sorption enhanced steam reforming of oxygenated hydrocarbons (ethanol, glycer , 2011 .
[2] Na Wang,et al. Hydrogen production by sorption enhanced steam reforming of propane: A thermodynamic investigation , 2011 .
[3] Chang Hyun Ko,et al. Improvement of the cyclic stability of high temperature CO2 absorbent by the addition of oxygen vacancy possessing material , 2009 .
[4] A. I. Lysikov,et al. Sorption enhanced hydrocarbons reforming for fuel cell powered generators , 2008 .
[5] Angeliki A. Lemonidou,et al. Development of new CaO based sorbent materials for CO2 removal at high temperature , 2008 .
[6] K. Yi,et al. Properties of a Nano CaO/Al2O3 CO2 Sorbent , 2008 .
[7] J. N. Kim,et al. Properties of Ca-Base CO2 Sorbent Using Ca(OH)2 as Precursor , 2007 .
[8] John F. Davidson,et al. The Effects of Repeated Cycles of Calcination and Carbonation on a Variety of Different Limestones, as Measured in a Hot Fluidized Bed of Sand , 2007 .
[9] Vasilije Manovic,et al. Steam reactivation of spent CaO-based sorbent for multiple CO2 capture cycles. , 2007, Environmental science & technology.
[10] Spyros Voutetakis,et al. Autothermal sorption-enhanced steam reforming of bio-oil/biogas mixture and energy generation by fuel cells: Concept analysis and process simulation , 2006 .
[11] R. Blom,et al. Sorbent enhanced steam reforming (SESR) of methane using dolomite as internal carbon dioxide absorbent: Limitations due to Ca(OH)2 formation , 2006 .
[12] Ningsheng Cai,et al. Synthesis, experimental studies, and analysis of a new calcium-based carbon dioxide absorbent , 2005 .
[13] K. Yi,et al. Low-Pressure Sorption-Enhanced Hydrogen Production , 2005 .
[14] Robin W. Hughes,et al. Improved Long-Term Conversion of Limestone-Derived Sorbents for In Situ Capture of CO2 in a Fluidized Bed Combustor , 2004 .
[15] E. Rubin,et al. Sorbent Cost and Performance in CO2 Capture Systems , 2004 .
[16] Juan Carlos Abanades,et al. Enhancement of CaO for CO2 capture in an FBC environment , 2003 .
[17] J. C. Abanades,et al. Conversion Limits in the Reaction of CO2 with Lime , 2003 .
[18] J. C. Abanades. The maximum capture efficiency of CO2 using a carbonation/calcination cycle of CaO/CaCO3 , 2002 .
[19] N. Nicoloso,et al. In situ Gas Conditioning in Fuel Reforming for Hydrogen Generation , 2002 .
[20] L. Fan,et al. Carbonation−Calcination Cycle Using High Reactivity Calcium Oxide for Carbon Dioxide Separation from Flue Gas , 2002 .
[21] Douglas P. Harrison,et al. Hydrogen Production Using Sorption-Enhanced Reaction , 2001 .
[22] Yoshizo Suzuki,et al. Hydrogen Production from Hydrocarbon by Integration of Water−Carbon Reaction and Carbon Dioxide Removal (HyPr−RING Method) , 2001 .
[23] Yoshio Yoshizawa,et al. Kinetic feasibility of a chemical heat pump for heat utilization of high-temperature processes , 1999 .
[24] Takayuki Shibata,et al. Applicability of zeolite for CO2 storage in a CaO-CO2 high temperature energy storage system , 1997 .
[25] D. P. Harrison,et al. CHARACTERISTICS OF THE REVERSIBLE REACTION BETWEEN CO2(g) AND CALCINED DOLOMITE , 1996 .
[26] Douglas P. Harrison,et al. Simultaneous shift reaction and carbon dioxide separation for the direct production of hydrogen , 1994 .