Intensified solar thermochemical CO2 splitting over iron-based redox materials via perovskite-mediated dealloying-exsolution cycles
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Xiaodong Wang | Lin Li | Wen Liu | B. Hou | Chuande Huang | M. Tian | Jian Lin | Yang Su | Yanyan Zhu | Yujia Han | Yue Hu | Weibin Xu | Li Zhang | Jian Wu | Xiaokuang Xue
[1] A. Steinfeld,et al. Reversible Phase Transformations in Novel Ce‐Substituted Perovskite Oxide Composites for Solar Thermochemical Redox Splitting of CO2 , 2021, Advanced Energy Materials.
[2] Liangliang Zhu,et al. Highly efficient reduction of O2-containing CO2 via chemical looping based on perovskite nanocomposites , 2020 .
[3] Tak H. Kim,et al. Experimental demonstration of vanadium-doped nanostructured ceria for enhanced solar thermochemical syngas production , 2020 .
[4] Xiujian Zhao,et al. Formation of NiCo Alloy Nanoparticles on Co Doped Al2O3 Leads to High Fuel Production Rate, Large Light‐to‐Fuel Efficiency, and Excellent Durability for Photothermocatalytic CO2 Reduction , 2020, Advanced Energy Materials.
[5] Zachary D. Hood,et al. Oxygen Exchange in Dual-phase La0.65Sr0.35MnO3-CeO2 Composites for Solar Thermochemical Fuel Production. , 2020, ACS applied materials & interfaces.
[6] Xiaodong Wang,et al. Identifying the Role of A-Site Cations in Modulating Oxygen Capacity of Iron-Based Perovskite for Enhanced Chemical Looping Methane-to-Syngas Conversion , 2020 .
[7] Jinlong Gong,et al. FeO6 Octahedral Distortion Activates Lattice Oxygen in Perovskite Ferrite for Methane Partial Oxidation Coupled with CO2-Splitting. , 2020, Journal of the American Chemical Society.
[8] Jinhua Ye,et al. Coupling of Solar Energy and Thermal Energy for Carbon Dioxide Reduction: Status and Prospects. , 2020, Angewandte Chemie.
[9] M. Santarelli,et al. Assessment of integration of methane-reduced ceria chemical looping CO2/H2O splitting cycle to an oxy-fired power plant , 2020 .
[10] W. Chueh,et al. High-capacity thermochemical CO2 dissociation using iron-poor ferrites , 2020 .
[11] Hongguang Jin,et al. Thermodynamic analysis of isothermal CO2 splitting and CO2-H2O co-splitting for solar fuel production , 2020 .
[12] T. Grande,et al. Effects of Oxygen Mobility in La–Fe-Based Perovskites on the Catalytic Activity and Selectivity of Methane Oxidation , 2020 .
[13] S. Assabumrungrat,et al. Ordered mesoporous Ni/La2O3 catalysts with interfacial synergism towards CO2 activation in dry reforming of methane , 2019 .
[14] Fanxing Li,et al. Modified Ceria for “Low‐Temperature” CO2 Utilization: A Chemical Looping Route to Exploit Industrial Waste Heat , 2019, Advanced Energy Materials.
[15] Xiujian Zhao,et al. High light-to-fuel efficiency and CO2 reduction rates achieved on a unique nanocomposite of Co/Co doped Al2O3 nanosheets with UV-vis-IR irradiation , 2019, Energy & Environmental Science.
[16] Jonathan A. Fan,et al. Near 100% CO selectivity in nanoscaled iron-based oxygen carriers for chemical looping methane partial oxidation , 2019, Nature Communications.
[17] Jun Kyu Kim,et al. Growth Kinetics of Individual Co Particles Ex-solved on SrTi0.75Co0.25O3-δ Polycrystalline Perovskite Thin Films. , 2019, Journal of the American Chemical Society.
[18] Xiaodong Wang,et al. Synergy of the catalytic activation on Ni and the CeO2–TiO2/Ce2Ti2O7 stoichiometric redox cycle for dramatically enhanced solar fuel production , 2019, Energy & Environmental Science.
[19] M. Fan,et al. Enhanced lattice oxygen reactivity over Fe2O3/Al2O3 redox catalyst for chemical-looping dry (CO2) reforming of CH4: Synergistic La-Ce effect , 2018, Journal of Catalysis.
[20] Hao Yu,et al. Calcium cobaltate: a phase-change catalyst for stable hydrogen production from bio-glycerol , 2018 .
[21] J. Kuhn,et al. Earth abundant perovskite oxides for low temperature CO2 conversion , 2018 .
[22] J. Kuhn,et al. Enhanced CO2 Conversion to CO by Silica-Supported Perovskite Oxides at Low Temperatures , 2018 .
[23] Xiaodong Wang,et al. La‐hexaaluminate for synthesis gas generation by Chemical Looping Partial Oxidation of Methane Using CO2 as Sole Oxidant , 2018 .
[24] B. Liu,et al. High-Performance Ni–Fe Redox Catalysts for Selective CH4 to Syngas Conversion via Chemical Looping , 2018 .
[25] G. Karagiannakis,et al. Thermochemical H 2 O and CO 2 splitting redox cycles in a NiFe 2 O 4 structured redox reactor: Design, development and experiments in a high flux solar simulator , 2017 .
[26] L. Jalowiecki-Duhamel,et al. Ni/CeO2 based catalysts as oxygen vectors for the chemical looping dry reforming of methane for syngas production , 2017 .
[27] A. Steinfeld,et al. Solar thermochemical splitting of CO2 into separate streams of CO and O2 with high selectivity, stability, conversion, and efficiency , 2017 .
[28] K. Zhao,et al. Investigation on reactivity of iron nickel oxides in chemical looping dry reforming , 2016 .
[29] S. Bhavsar,et al. Iron–Nickel Alloys for Carbon Dioxide Activation by Chemical Looping Dry Reforming of Methane , 2016 .
[30] K. Zhao,et al. Perovskite-type oxides LaFe1−xCoxO3 for chemical looping steam methane reforming to syngas and hydrogen co-production , 2016 .
[31] J. Kuhn,et al. Isothermal reverse water gas shift chemical looping on La0.75Sr0.25Co(1−Y)FeYO3 perovskite-type oxides , 2015 .
[32] Can Li,et al. Two-step thermochemical cycles for CO2 splitting on Zr-doped cobalt ferrite supported on silica , 2015 .
[33] C. Detavernier,et al. Catalyst-assisted chemical looping for CO2 conversion to CO , 2015 .
[34] Jane H. Davidson,et al. Efficient splitting of CO2 in an isothermal redox cycle based on ceria , 2014 .
[35] J. Kuhn,et al. Carbon Dioxide Conversion by Reverse Water–Gas Shift Chemical Looping on Perovskite-Type Oxides , 2014 .
[36] S. Haile,et al. High-temperature isothermal chemical cycling for solar-driven fuel production. , 2013, Physical chemistry chemical physics : PCCP.
[37] Xinhua Liang,et al. Efficient Generation of H2 by Splitting Water with an Isothermal Redox Cycle , 2013, Science.
[38] W. Chueh,et al. Sr- and Mn-doped LaAlO3-δ for solar thermochemical H2 and CO production , 2013 .
[39] C. Detavernier,et al. CeO2-modified Fe2O3 for CO2 utilization via chemical looping , 2013 .
[40] Nathan P. Siegel,et al. Factors Affecting the Efficiency of Solar Driven Metal Oxide Thermochemical Cycles , 2013 .
[41] Fanxing Li,et al. Iron Oxide with Facilitated O2– Transport for Facile Fuel Oxidation and CO2 Capture in a Chemical Looping Scheme , 2013 .
[42] Ulrich Vogt,et al. Solar Thermochemical CO2 Splitting Utilizing a Reticulated Porous Ceria Redox System , 2012 .
[43] M. Romero,et al. Concentrating solar thermal power and thermochemical fuels , 2012 .
[44] Alan W. Weimer,et al. CoFe2O4 on a porous Al2O3 nanostructure for solar thermochemical CO2 splitting , 2012 .
[45] De Chen,et al. Chemical looping methane partial oxidation: The effect of the crystal size and O content of LaFeO3 , 2012 .
[46] A. Thursfield,et al. A chemical looping process for hydrogen production using iron-containing perovskites , 2011 .
[47] Todd H. Gardner,et al. Carbon capture and utilization via chemical looping dry reforming , 2011 .
[48] Christos T. Maravelias,et al. Methanol production from CO2 using solar-thermal energy: process development and techno-economic analysis , 2011 .
[49] Liang-Shih Fan,et al. Role of metal oxide support in redox reactions of iron oxide for chemical looping applications: experiments and density functional theory calculations , 2011 .
[50] L. Fan,et al. Ionic diffusion in the oxidation of iron—effect of support and its implications to chemical looping applications , 2011 .
[51] W. Chueh,et al. High-Flux Solar-Driven Thermochemical Dissociation of CO2 and H2O Using Nonstoichiometric Ceria , 2010, Science.
[52] S. D. Kim,et al. Hydrogen production from two-step steam methane reforming in a fluidized bed reactor , 2009 .
[53] Peter G. Loutzenhiser,et al. CO2 Splitting via Two-Step Solar Thermochemical Cycles with Zn/ZnO and FeO/Fe3O4 Redox Reactions II: Kinetic Analysis , 2008 .
[54] G. Henkelman,et al. A climbing image nudged elastic band method for finding saddle points and minimum energy paths , 2000 .
[55] G. Henkelman,et al. Improved tangent estimate in the nudged elastic band method for finding minimum energy paths and saddle points , 2000 .
[56] G. Kresse,et al. From ultrasoft pseudopotentials to the projector augmented-wave method , 1999 .
[57] Burke,et al. Generalized Gradient Approximation Made Simple. , 1996, Physical review letters.
[58] Kresse,et al. Efficient iterative schemes for ab initio total-energy calculations using a plane-wave basis set. , 1996, Physical review. B, Condensed matter.
[59] G. Kresse,et al. Efficiency of ab-initio total energy calculations for metals and semiconductors using a plane-wave basis set , 1996 .
[60] Hafner,et al. Ab initio molecular-dynamics simulation of the liquid-metal-amorphous-semiconductor transition in germanium. , 1994, Physical review. B, Condensed matter.
[61] V. P. Itkin,et al. The Fe-Ni (iron-nickel) system , 1991 .
[62] A. Dalvi,et al. A review of the diffusion path concept and its application to the high-temperature oxidation of binary alloys , 1972 .
[63] F. Pettit,et al. The mechanism of oxidation of iron in carbon monoxide-carbon dioxide mixtures , 1960 .
[64] S. Haile,et al. Outstanding Properties and Performance of CaTi0.5Mn0.5O3–δ for Solar-Driven Thermochemical Hydrogen Production , 2021 .
[65] G. Veser,et al. Physical mixtures as simple and efficient alternative to alloy carriers in chemical looping processes , 2017 .
[66] Christos T. Maravelias,et al. A general framework for the assessment of solar fuel technologies , 2015 .