Toward gasoline vehicles with zero harmful emissions by storing NO at Pd nanoparticle–CeO2 interface during the cold-start period
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Do Heui Kim | C. H. Kim | Jong Suk Yoo | Jaehan Lee | Eunwon Lee | Yongwoo Kim | Sungha Hwang | Hyokyoung Lee | Chan-Kyou Jeong | Gwang Seok Hong
[1] Emily A. Smith,et al. Non-Innocent Role of the Ceria Support in Pd-Catalyzed Halophenol Hydrodehalogenation , 2021, ACS Catalysis.
[2] A. Guda,et al. Enhanced Reducibility of the Ceria–Tin Oxide Solid Solution Modifies the CO Oxidation Mechanism at the Platinum–Oxide Interface , 2021, ACS Catalysis.
[3] C. Kuo,et al. Unraveling the Intermediate Reaction Complexes and Critical Role of Support-Derived Oxygen Atoms in CO Oxidation on Single-Atom Pt/CeO2 , 2021, ACS Catalysis.
[4] E. Hensen,et al. Interface dynamics of Pd–CeO2 single-atom catalysts during CO oxidation , 2021, Nature Catalysis.
[5] Angelica D. Benavidez,et al. Atomically Dispersed Dopants for Stabilizing Ceria Surface Area , 2021 .
[6] M. Verheijen,et al. Improved Pd/CeO2 Catalysts for Low-Temperature NO Reduction: Activation of CeO2 Lattice Oxygen by Fe Doping , 2021, ACS catalysis.
[7] A. M. Efstathiou,et al. H2-SCR of NOx on low-SSA CeO2-supported Pd: The effect of Pd particle size , 2021 .
[8] Yong Qin,et al. Spillover in Heterogeneous Catalysis: New Insights and Opportunities , 2021 .
[9] Joshua L. Vincent,et al. Dynamic structure of active sites in ceria-supported Pt catalysts for the water gas shift reaction , 2021, Nature Communications.
[10] A. Datye,et al. Opportunities and challenges in the development of advanced materials for emission control catalysts , 2020, Nature Materials.
[11] M. Willinger,et al. The dynamics of overlayer formation on catalyst nanoparticles and strong metal-support interaction , 2020, Nature Communications.
[12] S. Pélissier,et al. Energy management strategy to reduce pollutant emissions during the catalyst light-off of parallel hybrid vehicles , 2020 .
[13] Wei Zhang,et al. Theoretical Studies on Stability and Reactivity of Metals Doped CeO2(100) surface: Towards H2 Dissociation and Oxygen Vacancy Formation. , 2020, Langmuir : the ACS journal of surfaces and colloids.
[14] S. Hoekman. Review of Nitrous Oxide (N2O) Emissions from Motor Vehicles , 2020 .
[15] R. Wu,et al. Comparative study of moisture treatment Pd@CeO2/Al2O3 and Pd/CeO2/Al2O3 catalysts for automobile exhaust emission reactions: effect of core-shell interface. , 2020, ACS applied materials & interfaces.
[16] K. D. de Jong,et al. Control of metal-support interactions in heterogeneous catalysts to enhance activity and selectivity , 2019, Nature Catalysis.
[17] M. Koyama,et al. NO Adsorption on 4d and 5d Transition-Metal (Rh, Pd, Ag, Ir, and Pt) Nanoparticles: Density Functional Theory Study and Supervised Learning , 2019, The Journal of Physical Chemistry C.
[18] R. Rousseau,et al. Carboxyl intermediate formation via an in situ-generated metastable active site during water-gas shift catalysis , 2019, Nature Catalysis.
[19] R. Farrauto,et al. Gasoline automobile catalysis and its historical journey to cleaner air , 2019, Nature Catalysis.
[20] W. Paxton,et al. Remarkable improvement in low temperature performance of model three-way catalysts through solution atomic layer deposition , 2019, Nature Catalysis.
[21] Evan C. Wegener,et al. Identification of active sites on supported metal catalysts with carbon nanotube hydrogen highways , 2018, Nature Communications.
[22] Joaquin Resasco,et al. Approaches for Understanding and Controlling Interfacial Effects in Oxide-Supported Metal Catalysts , 2018, ACS Catalysis.
[23] Hyunjoon Lee,et al. Promoting Effects of Hydrothermal Treatment on the Activity and Durability of Pd/CeO2 Catalysts for CO Oxidation , 2017 .
[24] G. Pacchioni,et al. Increasing Oxide Reducibility: The Role of Metal/Oxide Interfaces in the Formation of Oxygen Vacancies , 2017 .
[25] F. Zaera. The Surface Chemistry of Metal-Based Hydrogenation Catalysis , 2017 .
[26] J. VandeVondele,et al. Catalyst support effects on hydrogen spillover , 2017, Nature.
[27] Do Heui Kim,et al. How Pt Interacts with CeO2 under the Reducing and Oxidizing Environments at Elevated Temperature: The Origin of Improved Thermal Stability of Pt/CeO2 Compared to CeO2 , 2016 .
[28] Jenny Riesz,et al. Quantifying the costs of a rapid transition to electric vehicles , 2016 .
[29] Christian Brand,et al. Beyond ‘Dieselgate’: Implications of unaccounted and future air pollutant emissions and energy use for cars in the United Kingdom , 2016 .
[30] Michelle H. Wiebenga,et al. Thermally stable single-atom platinum-on-ceria catalysts via atom trapping , 2016, Science.
[31] D. Thompsett,et al. Low Temperature NO Storage of Zeolite Supported Pd for Low Temperature Diesel Engine Emission Control , 2016, Catalysis Letters.
[32] Jeremy J. Michalek,et al. Alternative Fuel Vehicle Adoption Increases Fleet Gasoline Consumption and Greenhouse Gas Emissions under United States Corporate Average Fuel Economy Policy and Greenhouse Gas Emissions Standards. , 2016, Environmental science & technology.
[33] Martin Votsmeier,et al. Effect of propene, propane, and methane on conversion and oxidation state of three-way catalysts: a microwave cavity perturbation study , 2015 .
[34] Jie Zhang,et al. Analysis of recoverable exhaust energy from a light-duty gasoline engine , 2013 .
[35] Erich Conlan Weigert,et al. Cold Start Concept (CSC™): A Novel Catalyst for Cold Start Emission Control , 2013 .
[36] Gequn Shu,et al. Gasoline engine exhaust gas recirculation – A review , 2012 .
[37] Ping Liu,et al. A new type of strong metal-support interaction and the production of H2 through the transformation of water on Pt/CeO2(111) and Pt/CeO(x)/TiO2(110) catalysts. , 2012, Journal of the American Chemical Society.
[38] K. Prince,et al. Hydrogen spillover monitored by resonant photoemission spectroscopy , 2012 .
[39] Thorsten Staudt,et al. Support nanostructure boosts oxygen transfer to catalytically active platinum nanoparticles. , 2011, Nature materials.
[40] Thierry-Marie Guerra,et al. Air-fuel ratio control in a gasoline engine , 2011, Int. J. Syst. Sci..
[41] E. Iglesia,et al. Mechanism and site requirements for NO oxidation on Pd catalysts , 2010 .
[42] Benjamin K. Sovacool,et al. Beyond Batteries: An Examination of the Benefits and Barriers to Plug-In Hybrid Electric Vehicles (PHEVs) and a Vehicle-to-Grid (V2G) Transition , 2009 .
[43] Gunter Hagen,et al. TWC: Lambda Control and OBD without Lambda Probe - An Initial Approach , 2008 .
[44] A. Herzing,et al. Probing Metal-Support Interactions under Oxidizing and Reducing Conditions: In Situ Raman and Infrared Spectroscopic and Scanning Transmission Electron Microscopic-X-ray Energy-Dispersive Spectroscopic Investigation of Supported Platinum Catalysts , 2008 .
[45] K. Hermansson,et al. Adsorption of NO on unreduced and reduced CeO2 surfaces: A plane-wave DFT study , 2006 .
[46] R. Kikuchi,et al. Determination of dispersion of precious metals on CeO2-containing supports , 2005 .
[47] F. Zaera,et al. Infrared study of CO adsorbed on Pd/Al2O3-ZrO2. Effect of zirconia added by impregnation. , 2004, Langmuir : the ACS journal of surfaces and colloids.
[48] M. Scheffler,et al. Oxygen Overlayers on Pd(111) Studied by Density Functional Theory , 2004 .
[49] F. Zaera. Infrared and molecular beam studies of chemical reactions on solid surfaces , 2002 .
[50] Uwe Kiencke,et al. Automotive Control Systems: For Engine, Driveline, and Vehicle , 2000 .
[51] S. Matsumoto. Catalytic Reduction of Nitrogen Oxides in Automotive Exhaust Containing Excess Oxygen by NOx Storage-Reduction Catalyst , 2000 .
[52] M. Schmal,et al. The CO2–CeO2 interaction and its role in the CeO2 reactivity , 1998 .
[53] A. Trovarelli,et al. Catalytic Properties of Ceria and CeO2-Containing Materials , 1996 .