Illustrating the overall reaction network of the synthesis-gas-to-hydrocarbons process over iron-zeolite bifunctional catalysis
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J. Gascón | E. Abou‐hamad | A. Ramírez | M. Caglayan | A. Chowdhury | X. Gong | N. Wehbe | T. Shoinkhorova | Yiru Ye | Wen Wang | R. Khairova | M. Çağlayan
[1] J. Gascón,et al. Selectivity descriptors for the direct hydrogenation of CO2 to hydrocarbons during zeolite-mediated bifunctional catalysis , 2021, Nature Communications.
[2] Jian Sun,et al. Towards the development of the emerging process of CO2 heterogenous hydrogenation into high-value unsaturated heavy hydrocarbons. , 2021, Chemical Society reviews.
[3] Anmin Zheng,et al. Molecular Understanding of the Catalytic Consequence of Ketene Intermediates under Confinement , 2021, Journal of the American Chemical Society.
[4] Leigh Krietsch Boerner. Airlines want to make flight more sustainable. How will they do it , 2021 .
[5] F. Deng,et al. Solid-state NMR studies of internuclear correlations for characterizing catalytic materials. , 2021, Chemical Society reviews.
[6] Zhongmin Liu,et al. Dynamic Activation of C1 Molecules Evoked by Zeolite Catalysis , 2021, ACS central science.
[7] J. Gascón,et al. Advances in the Design of Heterogeneous Catalysts and Thermocatalytic Processes for CO2 Utilization , 2020, ACS Catalysis.
[8] A. Beale,et al. Insight into the effects of confined hydrocarbon species on the lifetime of methanol conversion catalysts , 2020, Nature Materials.
[9] Jaehoon Kim,et al. Selective Conversion of Carbon Dioxide into Liquid Hydrocarbons and Long-Chain α-Olefins over Fe-Amorphous AlOx Bifunctional Catalysts , 2020 .
[10] B. Weckhuysen,et al. Elucidating Zeolite Channel Geometry–Reaction Intermediate Relationships for the Methanol‐to‐Hydrocarbon Process , 2020, Angewandte Chemie.
[11] Zhongmin Liu,et al. Imaging spatiotemporal evolution of molecules and active sites in zeolite catalyst during methanol-to-olefins reaction , 2020, Nature Communications.
[12] J. Gascón,et al. Illuminating Initial Carbon-Carbon Bond Formation during the Early Stages of Methane Dehydroaromatization. , 2020, Angewandte Chemie.
[13] Ke Gong,et al. C-C bond formation in syngas conversion over Zn sites grafted on ZSM-5. , 2020, Angewandte Chemie.
[14] J. Gascón,et al. A Supramolecular View on the Cooperative Role of Brønsted and Lewis Acid Sites in Zeolites for Methanol Conversion , 2019, Journal of the American Chemical Society.
[15] M. Bowker. Methanol Synthesis from CO2 Hydrogenation , 2019, ChemCatChem.
[16] J. Hazemann,et al. Tandem Conversion of CO2 to Valuable Hydrocarbons in Highly Concentrated Potassium Iron Catalysts , 2019, ChemCatChem.
[17] W. Zhou,et al. New horizon in C1 chemistry: breaking the selectivity limitation in transformation of syngas and hydrogenation of CO2 into hydrocarbon chemicals and fuels. , 2019, Chemical Society reviews.
[18] B. Weckhuysen,et al. Multiscale Mechanistic Insights of Shaped Catalyst Body Formulations and Their Impact on Catalytic Properties , 2019, ACS Catalysis.
[19] B. Weckhuysen,et al. Visualizing pore architecture and molecular transport boundaries in catalyst bodies with fluorescent nanoprobes , 2018, Nature Chemistry.
[20] A. Bhan,et al. Lifetime improvement in methanol-to-olefins catalysis over chabazite materials by high-pressure H2 co-feeds , 2018, Nature Catalysis.
[21] J. Gascón,et al. Metal Organic Framework-Derived Iron Catalysts for the Direct Hydrogenation of CO2 to Short Chain Olefins , 2018, ACS Catalysis.
[22] Can Li,et al. Investigating the Coke Formation Mechanism of H-ZSM-5 during Methanol Dehydration Using Operando UV–Raman Spectroscopy , 2018, ACS Catalysis.
[23] F. Kapteijn,et al. Structure–performance descriptors and the role of Lewis acidity in the methanol-to-propylene process , 2018, Nature Chemistry.
[24] B. Weckhuysen,et al. Recent trends and fundamental insights in the methanol-to-hydrocarbons process , 2018, Nature Catalysis.
[25] B. Weckhuysen,et al. Bridging the Gap between the Direct and Hydrocarbon Pool Mechanisms of the Methanol‐to‐Hydrocarbons Process , 2018, Angewandte Chemie.
[26] Donghai Mei,et al. Tracking the Chemical Transformations at the Brønsted Acid Site upon Water-Induced Deprotonation in a Zeolite Pore , 2017 .
[27] K. Lillerud,et al. Hydrogen transfer versus methylation: on the genesis of aromatics formation in the Methanol-To-Hydrocarbons reaction over H-ZSM-5 , 2017 .
[28] Hengyong Xu,et al. Directly converting CO2 into a gasoline fuel , 2017, Nature Communications.
[29] A. Konnov,et al. Laminar burning velocity of diacetyl + air flames. Further assessment of combustion chemistry of ketene , 2017 .
[30] Yu Han,et al. A mechanistic basis for the effect of aluminum content on ethene selectivity in methanol-to-hydrocarbons conversion on HZSM-5 , 2017 .
[31] Manuel Moliner,et al. “Ab initio” synthesis of zeolites for preestablished catalytic reactions , 2017, Science.
[32] Cecilia Mondelli,et al. Status and prospects in higher alcohols synthesis from syngas. , 2017, Chemical Society reviews.
[33] Won Young Kim,et al. Carbon dioxide Fischer-Tropsch synthesis: A new path to carbon-neutral fuels , 2017 .
[34] J. Lercher,et al. Hydrogen Transfer Pathways during Zeolite Catalyzed Methanol Conversion to Hydrocarbons. , 2016, Journal of the American Chemical Society.
[35] Abdullah M. Asiri,et al. Initial Carbon–Carbon Bond Formation during the Early Stages of the Methanol‐to‐Olefin Process Proven by Zeolite‐Trapped Acetate and Methyl Acetate , 2016, Angewandte Chemie.
[36] C. Berrueco,et al. Effect of zeolite acidity and mesoporosity on the activity of Fischer–Tropsch Fe/ZSM-5 bifunctional catalysts , 2016 .
[37] Li-Chiang Lin,et al. Effects of Zeolite Structural Confinement on Adsorption Thermodynamics and Reaction Kinetics for Monomolecular Cracking and Dehydrogenation of n-Butane. , 2016, Journal of the American Chemical Society.
[38] F. Deng,et al. Direct Detection of Supramolecular Reaction Centers in the Methanol-to-Olefins Conversion over Zeolite H-ZSM-5 by (13)C-(27)Al Solid-State NMR Spectroscopy. , 2016, Angewandte Chemie.
[39] F. Kapteijn,et al. Metal organic framework-mediated synthesis of highly active and stable Fischer-Tropsch catalysts , 2015, Nature Communications.
[40] Abdullah M. Asiri,et al. Influence of the Reaction Temperature on the Nature of the Active and Deactivating Species During Methanol-to-Olefins Conversion over H-SAPO-34 , 2015, ACS catalysis.
[41] S. Zones,et al. Implications of Transition State Confinement within Small Voids for Acid Catalysis , 2014 .
[42] A. J. Markvoort,et al. Mechanism and microkinetics of the Fischer-Tropsch reaction. , 2013, Physical chemistry chemical physics : PCCP.
[43] P. Stair,et al. Time-Resolved Studies of Ethylene and Propylene Reactions in Zeolite H-MFI by In-Situ Fast IR Heating and UV Raman Spectroscopy , 2012 .
[44] S. Abelló,et al. Exploring iron-based multifunctional catalysts for Fischer-Tropsch synthesis: a review. , 2011, ChemSusChem.
[45] Unni Olsbye,et al. Coke formation during the methanol-to-olefin conversion: in situ microspectroscopy on individual H-ZSM-5 crystals with different Brønsted acidity. , 2011, Chemistry.
[46] Anmin Zheng,et al. 13C Chemical Shift of Adsorbed Acetone for Measuring the Acid Strength of Solid Acids: A Theoretical Calculation Study , 2010 .
[47] J. Berg,et al. Role of Step Sites and Surface Vacancies in the Adsorption and Activation of CO on χ-Fe5C2 Surfaces , 2010 .
[48] A. Borgna,et al. Density Functional Theory Study of the CO Insertion Mechanism for Fischer−Tropsch Synthesis over Co Catalysts , 2009 .
[49] Burtron H. Davis,et al. Fischer–Tropsch Synthesis: Reaction mechanisms for iron catalysts , 2009 .
[50] Unni Olsbye,et al. Space- and time-resolved in-situ spectroscopy on the coke formation in molecular sieves: methanol-to-olefin conversion over H-ZSM-5 and H-SAPO-34. , 2008, Chemistry.
[51] B. Weckhuysen,et al. The renaissance of iron-based Fischer-Tropsch synthesis: on the multifaceted catalyst deactivation behaviour. , 2008, Chemical Society reviews.
[52] J. Gaube,et al. Studies on the reaction mechanism of the Fischer-Tropsch synthesis on iron and cobalt catalysts , 2008 .
[53] Berend Smit,et al. Towards a molecular understanding of shape selectivity , 2008, Nature.
[54] K. Lillerud,et al. Conversion of methanol into hydrocarbons over zeolite H-ZSM-5: ethene formation is mechanistically separated from the formation of higher alkenes. , 2006, Journal of the American Chemical Society.
[55] S. Becker,et al. Determination of membrane protein structure and dynamics by magic-angle-spinning solid-state NMR spectroscopy. , 2005, Journal of the American Chemical Society.
[56] F. G. Botes,et al. The addition of HZSM-5 to the Fischer–Tropsch process for improved gasoline production , 2004 .
[57] A. Faaij,et al. Exploration of the possibilities for production of Fischer Tropsch liquids and power via biomass gasification , 2002 .
[58] M. Dry,et al. The Fischer–Tropsch process: 1950–2000 , 2002 .
[59] Weiguo Song,et al. A Persistent Carbenium Ion on the Methanol-to-Olefin Catalyst HSAPO-34: Acetone Shows the Way , 2001 .
[60] Weiguo Song,et al. Methylbenzenes Are the Organic Reaction Centers for Methanol-to-Olefin Catalysis on HSAPO-34 , 2000 .
[61] A. Corma,et al. Activation of Hydrogen on Zeolites: Kinetics and Mechanism of n-Heptane Cracking on H-ZSM-5 Zeolites Under High Hydrogen Pressure , 1995 .
[62] E. Munson,et al. Toward a Systematic Chemistry of Organic Reactions in Zeolites: In situ NMR Studies of Ketones , 1994 .
[63] W. Sachtler,et al. Incorporation of surface carbon into hydrocarbons during Fischer-Tropsch synthesis: Mechanistic implications , 1979 .
[64] Gareth A. Morris,et al. Enhancement of nuclear magnetic resonance signals by polarization transfer , 1979 .
[65] R. Schliebs,et al. On the displacement reaction CH3+CH3 COCOCH3→CH3 COCH3+CH3 CO , 1978 .
[66] Gisela Henrici-Olivé,et al. The Fischer‐Tropsch Synthesis: Molecular Weight Distribution of Primary Products and Reaction Mechanism , 1976 .
[67] P. Emmett,et al. FISCHER—TROPSCH SYNTHESIS MECHANISM STUDIES. II. THE ADDITION OF RADIOACTIVE KETENE TO THE SYNTHESIS GAS , 1959 .
[68] F. O. Rice,et al. The Thermal Decomposition of Diacetyl , 1939 .
[69] J. Gascón,et al. Acidity modification of ZSM-5 for enhanced production of light olefins from CO2 , 2020 .
[70] E. Steen,et al. Mechanistic Issues in Fischer–Tropsch Catalysis , 2011 .
[71] B. Davis,et al. Role of CO2 oxygenates and alkenes in the initiation of chain growth during the Fischer-Tropsch synthesis , 1997 .
[72] Bernard Delmon,et al. Studies in Surface Science and Catalysis , 1988 .
[73] P. Emmett,et al. Mechanism Studies of the Fischer-Tropsch Synthesis. The Addition of Radioactive Methanol, Carbon Dioxide and Gaseous Formaldehyde , 1957 .
[74] P. Emmett,et al. Fischer—Tropsch Synthesis Mechanism Studies. The Addition of Radioactive Alcohols to the Synthesis Gas , 1953 .
[75] F. Fischer. Development of the benzine synthesis from carbon monoxide and hydrogen at atmospheric pressure. [Co--Cu--Th or Ni catalysts; boiling point composition curve for benzine and bibliography for 1926-1930] , 2022 .