Unraveling the Detailed Interactions between the Surface Species and Nanoparticle Catalyst by a Temperature-Programed Desorption Spectrum at the Molecular Level via a Multi-Scale Simulation and Modeling Experiment
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X. Wen | Xingwu Liu | Yurong He | He Wang | Botao Teng | Yong-wang Li
[1] Steven B. Torrisi,et al. Decoding reactive structures in dilute alloy catalysts , 2022, Nature communications.
[2] C. Vogt,et al. The concept of active site in heterogeneous catalysis , 2022, Nature Reviews Chemistry.
[3] Shuangshuang Lv,et al. A Simulated-TPD Study of H2 Desorption on Metal Surfaces , 2021, Surface Science.
[4] P. Sautet,et al. Identification of active catalysts for the acceptorless dehydrogenation of alcohols to carbonyls , 2021, Nature Communications.
[5] C. Shang,et al. In Situ Active Site for CO Activation in Fe-Catalyzed Fischer-Tropsch Synthesis from Machine Learning. , 2021, Journal of the American Chemical Society.
[6] E. Hensen,et al. The role of H2 in Fe carburization by CO in Fischer-Tropsch catalysts , 2021, Journal of Catalysis.
[7] K. Reuter,et al. Adsorption Enthalpies for Catalysis Modeling through Machine-Learned Descriptors. , 2021, Accounts of chemical research.
[8] Yong Yang,et al. Theoretical Perspectives on the Modulation of Carbon on Transition-Metal Catalysts for Conversion of Carbon-Containing Resources , 2021 .
[9] Ali Hussain Motagamwala,et al. Microkinetic Modeling: A Tool for Rational Catalyst Design. , 2020, Chemical reviews.
[10] Huabo Zhao,et al. Synthesis of Iron-Carbide Nanoparticles: Identification of the Active Phase and Mechanism of Fe-Based Fischer–Tropsch Synthesis , 2020, CCS Chemistry.
[11] S. Duan,et al. Bistability for CO Oxidation: An Understanding from Extended Phenomenological Kinetics Simulations , 2019, ACS Catalysis.
[12] J. Wintterlin,et al. The active sites of a working Fischer–Tropsch catalyst revealed by operando scanning tunnelling microscopy , 2019, Nature Catalysis.
[13] Pengju Ren,et al. High-Coverage CO Adsorption and Dissociation on Ir(111), Ir(100), and Ir(110) from Computations , 2019, The Journal of Physical Chemistry C.
[14] J. Niemantsverdriet,et al. Atomically Defined Iron Carbide Surface for Fischer–Tropsch Synthesis Catalysis , 2018, ACS Catalysis.
[15] Fang Wang,et al. H2 Thermal Desorption Spectra on Pt(111): A Density Functional Theory and Kinetic Monte Carlo Simulation Study , 2018, Catalysts.
[16] Avelino Corma,et al. Metal Catalysts for Heterogeneous Catalysis: From Single Atoms to Nanoclusters and Nanoparticles , 2018, Chemical reviews.
[17] N. Su,et al. Beyond Mean-Field Microkinetics: Toward Accurate and Efficient Theoretical Modeling in Heterogeneous Catalysis , 2018 .
[18] Yong Yang,et al. Hunting the Correlation between Fe5C2 Surfaces and Their Activities on CO: The Descriptor of Bond Valence , 2018 .
[19] Yong Yang,et al. Iron Carbides in Fischer–Tropsch Synthesis: Theoretical and Experimental Understanding in Epsilon-Iron Carbide Phase Assignment , 2017 .
[20] Yu Mao,et al. Theory and applications of surface micro‐kinetics in the rational design of catalysts using density functional theory calculations , 2017 .
[21] Cynthia M Friend,et al. Heterogeneous Catalysis: A Central Science for a Sustainable Future. , 2017, Accounts of chemical research.
[22] Ding Ma,et al. Highly Tunable Selectivity for Syngas-Derived Alkenes over Zinc and Sodium-Modulated Fe5 C2 Catalyst. , 2016, Angewandte Chemie.
[23] M. Stamatakis,et al. Bridging model and real catalysts: general discussion. , 2016, Faraday discussions.
[24] Albert K. Dearden,et al. Mössbauer Spectroscopy of Iron Carbides: From Prediction to Experimental Confirmation , 2016, Scientific Reports.
[25] Jianguo Wang,et al. High coverage adsorption and co-adsorption of CO and H2 on Ru(0001) from DFT and thermodynamics. , 2015, Physical chemistry chemical physics : PCCP.
[26] James W. Evans,et al. Kinetic Monte Carlo Simulation of Statistical Mechanical Models and Coarse-Grained Mesoscale Descriptions of Catalytic Reaction-Diffusion Processes: 1D Nanoporous and 2D Surface Systems. , 2015, Chemical reviews.
[27] Jianguo Wang,et al. Determining surface structure and stability of ε-Fe2C, χ-Fe5C2, θ-Fe3C and Fe4C phases under carburization environment from combined DFT and atomistic thermodynamic studies , 2015 .
[28] M. Stamatakis. Kinetic modelling of heterogeneous catalytic systems , 2015, Journal of physics. Condensed matter : an Institute of Physics journal.
[29] C. Wolverton,et al. Implications of coverage-dependent O adsorption for catalytic NO oxidation on the late transition metals , 2014 .
[30] U. Graham,et al. Fischer–Tropsch Synthesis: Morphology, Phase Transformation, and Carbon‐Layer Growth of Iron‐Based Catalysts , 2014 .
[31] Tao Wang,et al. Coverage-Dependent CO Adsorption and Dissociation Mechanisms on Iron Surfaces from DFT Computations , 2014 .
[32] Xinggui Zhou,et al. CO Activation Pathways of Fischer–Tropsch Synthesis on χ-Fe5C2 (510): Direct versus Hydrogen-Assisted CO Dissociation , 2014 .
[33] Tao Wang,et al. Hydrogen Adsorption Structures and Energetics on Iron Surfaces at High Coverage , 2014 .
[34] Franziska Hess,et al. Kinetic Monte Carlo simulations of heterogeneously catalyzed oxidation reactions , 2014 .
[35] Jia Yang,et al. Fischer–Tropsch synthesis: A review of the effect of CO conversion on methane selectivity , 2014 .
[36] J. Hanson,et al. In-situ Characterization of Heterogeneous Catalysts , 2013 .
[37] M. Neurock,et al. CO chemisorption and dissociation at high coverages during CO hydrogenation on Ru catalysts. , 2013, Journal of the American Chemical Society.
[38] Jianguo Wang,et al. Surface morphology of Hägg iron carbide (χ-Fe5C2) from ab initio atomistic thermodynamics , 2012 .
[39] Huabo Zhao,et al. Fe5C2 nanoparticles: a facile bromide-induced synthesis and as an active phase for Fischer-Tropsch synthesis. , 2012, Journal of the American Chemical Society.
[40] A. P. J Jansen,et al. An Introduction to Kinetic Monte Carlo Simulations of Surface Reactions , 2012 .
[41] C. J. Weststrate,et al. Hydrogen Adsorption on Co Surfaces: A Density Functional Theory and Temperature Programmed Desorption Study , 2012 .
[42] J. Bitter,et al. Supported Iron Nanoparticles as Catalysts for Sustainable Production of Lower Olefins , 2012, Science.
[43] M. Stamatakis,et al. A review of multiscale modeling of metal-catalyzed reactions: Mechanism development for complexity and emergent behavior , 2011 .
[44] R. V. Duyne,et al. Wulff construction for alloy nanoparticles. , 2011, Nano letters.
[45] B. Weckhuysen,et al. On the surface chemistry of iron oxides in reactive gas atmospheres. , 2011, Angewandte Chemie.
[46] D. Vlachos,et al. Using first principles to predict bimetallic catalysts for the ammonia decomposition reaction , 2010, Nature Chemistry.
[47] F. Illas,et al. Theoretical Simulation of Temperature Programmed Desorption of Molecular Oxygen on Isolated Au Nanoparticles from Density Functional Calculations and Microkinetics Models , 2010 .
[48] J. Nørskov,et al. Understanding Trends in Catalytic Activity: The Effect of Adsorbate–Adsorbate Interactions for CO Oxidation Over Transition Metals , 2010 .
[49] S. Helveg,et al. Nano-Particles in Heterogeneous Catalysis , 2009 .
[50] D. Sorescu. Plane-Wave Density Functional Theory Investigations of the Adsorption and Activation of CO on Fe5C2 Surfaces , 2009 .
[51] R. Johnston,et al. Nanoalloys: from theory to applications of alloy clusters and nanoparticles. , 2008, Chemical reviews.
[52] F. Abild‐Pedersen,et al. CO adsorption energies on metals with correction for high coordination adsorption sites – A density functional study , 2007 .
[53] I. Chorkendorff,et al. Concepts of Modern Catalysis and Kinetics: CHORKEND:CONCEP.CATALYSIS O-BK , 2005 .
[54] Daan Frenkel,et al. The steady state of heterogeneous catalysis, studied by first-principles statistical mechanics. , 2004, Physical review letters.
[55] H. Jiao,et al. Density functional theory study of CO adsorption on Fe5C2(001), -(100), and -(110) surfaces , 2004 .
[56] David P. Dobson,et al. Thermal expansion and crystal structure of cementite, Fe3C, between 4 and 600 K determined by time-of-flight neutron powder diffraction , 2004 .
[57] M. Scheffler,et al. Composition and structure of the RuO2(110) surface in an O2 and CO environment: Implications for the catalytic formation of CO2 , 2003, cond-mat/0301602.
[58] B S Clausen,et al. Catalyst design by interpolation in the periodic table: bimetallic ammonia synthesis catalysts. , 2001, Journal of the American Chemical Society.
[59] M. Scheffler,et al. Composition, structure, and stability of RuO2(110) as a function of oxygen pressure , 2001, cond-mat/0107229.
[60] J. J. Retief. Powder diffraction data and Rietveld refinement of Hägg-carbide, χ-Fe5C2 , 1999, Powder Diffraction.
[61] G. Kresse,et al. From ultrasoft pseudopotentials to the projector augmented-wave method , 1999 .
[62] Matthew Neurock,et al. First-principles-based molecular simulation of heterogeneous catalytic surface chemistry , 1998 .
[63] Burke,et al. Generalized Gradient Approximation Made Simple. , 1996, Physical review letters.
[64] Kresse,et al. Efficient iterative schemes for ab initio total-energy calculations using a plane-wave basis set. , 1996, Physical review. B, Condensed matter.
[65] G. Kresse,et al. Efficiency of ab-initio total energy calculations for metals and semiconductors using a plane-wave basis set , 1996 .
[66] Blöchl,et al. Projector augmented-wave method. , 1994, Physical review. B, Condensed matter.
[67] Wang,et al. Accurate and simple analytic representation of the electron-gas correlation energy. , 1992, Physical review. B, Condensed matter.
[68] Paxton,et al. High-precision sampling for Brillouin-zone integration in metals. , 1989, Physical review. B, Condensed matter.
[69] C. Mims,et al. Evidence for rapid chain growth in the Fischer-Tropsch synthesis over iron and cobalt catalysts , 1987 .
[70] L. Marks. Particle size effects on Wulff constructions , 1985 .
[71] H. Monkhorst,et al. SPECIAL POINTS FOR BRILLOUIN-ZONE INTEGRATIONS , 1976 .
[72] Y. Amenomiya,et al. A Temperature Programmed Desorption Technique for Investigation of Practical Catalysts , 1972 .
[73] H. Pichler,et al. Neuere Erkenntnisse auf dem Gebiet der Synthese von Kohlenwasserstoffen aus CO und H2 , 1970 .
[74] G. Barton,et al. The structure of a pseudo‐hexagonal iron carbide , 1964 .
[75] P. Emmett,et al. Fischer—Tropsch Synthesis Mechanism Studies. The Addition of Radioactive Alcohols to the Synthesis Gas , 1953 .
[76] P. Emmett,et al. Mechanism Studies of the Fischer—Tropsch Synthesis. The Addition of Radioactive Alcohol , 1951 .