RNDr. Štefan VAJDA CSc., Dr.habil. - Publications and Patents
Publications: Over 120, including papers in Journal of the American Chemical Society, Nature Materials, Nature Nanotechnology; two in Angewandte Chemie, Nano Letters, Nature Communications, Physical Review Letters and Science; three in ACS Nano, six in ACS Catalysis.
Recent highly cited papers (ISI): Nature Materials (2009), Science (2010), ACS Nano (2013), Nature Nanotechnology (2015).
Editors' Choice: J. Chem. Phys. (2009), Phys. Chem. Chem. Phys. (2011), Nat. Commun. (2019).
Feature Article: Phys. Chem. Chem. Phys. (2010, 2022), J. Chem. Phys. (2018).
Patents: 7 US Patents issued
Talks: Over 170 talks presented. (Over 90 invited talks at international conferences, including 7 plenary and 11 keynote lectures.)
I. Publications in refereed journals
I-112. |
"Stability and properties of new-generation metal and metal-oxide clusters down to subnanometer scale" |
I-111. | "Absence of a pressure gap and atomistic mechanism of the oxidation of pure Co nanoparticles", J. Vijayakumar, T.M. Savchenko, D.M. Bracher, G. Lumbeeck, A. Béché, J. Verbeeck, Š. Vajda, F. Nolting, C.A.F. Vaz, A. Kleibert, Nat Commun 14 (2023), DOI: 10.1038/s41467-023-35846-0, link
Open access |
I-110. | "Nanoalloy structures and catalysis part 1: general discussion", D. Alloyeau, V. Amendola, C. Amiens, P. Andreazza, J. M. Bakker, F. Baletto, S. Barcikowski, N. Barrabes, M. Bowker, F. Chen, E. Cottancin, W. E. Ernst, R. Ferrando, G. D. Förster, A. Fortunelli, D. Grandjean, H. Guesmi, G. J. Hutchings, E. Janssens, M. J. Yacaman, Ch. Kuttner, L. Macheli, E. Marceau, M. M. Mariscal, J. K. Mathiesen, J. McGrady, Ch. Mottet, D. Nelli, P. Ntola, C. J. Owen, M. Polak, J. Quinson, C. Roncaglia, L. Rubinovich, R. Schaefer, M. Settem, J, Shield, M. Shozi, S. Swaminathan, S. Vajda and H.-Ch. Weissker, Faraday Discuss. 242, 106-128 (2023), DOI: 10.1039/D2FD90085H, link
Open access |
I-109. | "Oxidative dehydrogenation of cyclohexene on atomically precise subnanometer Cu4-nPdn (0≤n≤4) tetramer clusters: The effect of cluster composition and support on performance", J. Jašík, S. Valtera, M. Vaidulych, M. Bunian, Y. Lei, A. Halder, H. Tarábková, M. Jindra, L. Kavan, O. Frank, S. Bartling and S. Vajda, Faraday Discuss. 242, 70-93 (2023), Advance Article, DOI: 10.1039/D2FD00108J, link
Open access |
I-108. | "Mechanism of Catalytic CO2 Hydrogenation to Methane and Methanol Using a Bimetallic Cu3Pd Cluster at a Zirconia Support", A. Mravak, S. Vajda, Vlasta Bonačić-Koutecký, J. Phys. Chem. C, 126, 18306-18312 (2022), DOI: 10.1021/acs.jpcc.2c04921, link, Inside Cover Open access |
I-107. | "Hydrogenation of CO2 on Nanostructured Cu/FeOx Catalysts: The Effect of Morphology and Cu Load on Selectivity", K. Simkovičová, M. I. Qadir, N. Žilková, J. E. Olszówka, P. Sialini, L. Kvítek, and Š. Vajda, Catalysts 12, 516 (2022), DOI: 10.3390/catal12050516, link
Open access |
I-106. | Exploring the Materials Space in the Smallest Particle Size Range: From Heterogeneous Catalysis to Electrocatalysis and Photocatalysis", J. Jašík, A. Fortunelli and Š. Vajda, Phys. Chem. Chem. Phys. 24, 12083-12115 (2022), DOI: 10.1039/D1CP05677H, 2022 PCCP HOT Article and PCCP Perspectives, inside back cover, link
Open access |
I-105. | “Atom by Atom Built Subnanometer Copper Cluster Catalyst for the Highly Selective Oxidative Dehydrogenation of Cyclohexene”, S. Valtera, J. Jašík, M. Vaidulych, J. E. Olszówka, M. Zlámalová, H. Tarábková, L. Kavan, and Š. Vajda, J. Chem. Phys. 156, 114302 (2022), DOI: 10.1063/5.0065350, link,
Open access |
I-104. |
“Probing Active Sites in CuxPdy Cluster Catalysts by Machine-Learning-Assisted X-ray Absorption Spectroscopy” |
I-103. |
“CO2 Methanation on Cu-Cluster Decorated Zirconia Supports with Different Morphology: A Combined Experimental In Situ GIXANES/GISAXS, Ex Situ XPS and Theoretical DFT Study” |
I-102. |
“Interpreting Operando XANES of Surface-Supported Subnanometer Clusters: When Fluxionality, Oxidation State and Size Effect Fight” |
I-101. | “Catalytic Properties of Model Supported Nanoparticles” C. T. Campbell, N. Lopez, S. Vajda, J. Chem. Phys. 152, 140401 (2020), DOI: 10.1063/5.0007579, Special Issue “Catalytic Properties of Model Supported Nanoparticles“, Guest Editors: C. T. Campbell, N. Lopez, S. Vajda, editorial, link, Open access |
I-100. | “Structural Reversibility of Cu Doped NU-1000 MOFs under Hydrogenation Conditions” A. Halder, S. Lee, B. Yang, M. J. Pellin, S. Vajda, Z. Li, Y. Yang, O. K. Farha, J. T. Hupp, J. Chem. Phys. 152, 084703 (2020), DOI: 10.1063/1.5130600, featured paper & front cover, link, Open access |
I-99. | “Oxidative Dehydrogenation of Cyclohexane by Cu vs Pd Clusters: Selectivity Control by Specific Cluster Dynamics” A. Halder, M.-A. Ha, H. Zhai, B. Yang, M. J. Pellin, S. Seifert, A. N. Alexandrova, S. Vajda, ChemCatChem. 12, 1307–1315, (2020) DOI: 10.1002/cctc.201901795, front cover, link, Open access |
I-98. |
“In situ Formed Ir3Li Nanoparticles as Active Cathode Material in Li-Oxygen Batteries” |
I-97. | “Mapping XANES Spectra on Structural Descriptors of Copper Oxide Clusters Using Supervised Machine Learning” Y. Liu, N. Marcella, J. Timoshenko, A. Halder, B. Yang, L. Kolipaka, M. J. Pellin, S. Seifert, S. Vajda, P. Liu, A. I. Frenkel, J. Chem. Phys. 151, 164201 (2019) DOI: 10.1063/1.5126597, front cover, link, Featured Article, 2019 Journal of Chemical Physics Edge Article, Cover Page, link, Open access |
I-96. |
“Dynamic Interplay between Copper Tetramers and Iron Oxide Boosting CO2 Conversion to Methanol and Hydrocarbons under Mild Conditions” |
I-95. | “Subnanometer Cobalt Oxide Clusters as Selective Low Temperature Oxidative Dehydrogenation Catalysts” S. Lee, A. Halder, G. A. Ferguson, S. Seifert, R. E. Winans, D. Teschner, R. Schlögl, V. Papaefthimiou, J. Greeley, L. A. Curtiss, S. Vajda, Nat. Commun. 10, Article number: 954, p.1-9, published on line February 27, 2019, DOI: 10.1038/s41467-019-08819-5, Communication, link; Editors’ Highlight, Open access |
I-94. |
“Nanoassemblies of Ultrasmall Clusters with Remarkable Activity in Carbon Dioxide Conversion to C1 Fuels” |
I-93. |
“Using First Principles Calculations to Interpret XANES Experiments: Extracting the Size-dependence of the (p, T) Phase Diagram of Sub-Nanometer Cu Clusters in an O2 Environment” |
I-92. |
“Subnanometer Substructures in Nanoassemblies Formed from Clusters under Reactive Atmosphere Revealed Using Machine Learning” |
I-91. |
“Water Oxidation Catalysis via Size-Selected Iridium Clusters” |
I-90. | “Viewpoint: Identification and Implications of Lithium Superoxide in Li-O2 Batteries” A. Halder, H. H. Wang, K. C. Lau, R. S. Assary, J. Lu, S. Vajda, K. Amine, L. A. Curtiss ACS Energy Letters 3, 1105-1109 (2018), DOI: 10.1021/acsenergylett.8b00385, link |
I-89. |
“Simple Size-controlled Synthesis of Au Nanoparticles and their Size-dependent Catalytic Activity” |
I-88. |
“Perspective: Size Selected Clusters for Catalysis and Electrochemistry” |
I-87. |
“Bimetallic Ag-Pt Sub-Nanometer Supported Clusters as Highly Efficient and Robust Oxidation Catalysts” |
I-86. |
“Reversing Size-Dependent Trends of Oxidation of Copper Clusters through Support Effects” |
I-85. |
“Highly Efficient Cu-Decorated Iron Oxide Nanocatalyst for Low Pressure CO2 Conversion” |
I-84. |
“Copper Cluster Size Effect in Methanol Synthesis from CO2” |
I-83. |
“Anomalous Diffusion of Single Metal Atoms on a Graphene Oxide Support” |
I-82. |
“Size-Selective Reactivity of Subnanometer Ag4 and Ag16 Clusters on a TiO2 Surface” |
I-81. |
“Alumina-Supported Sub-Nanometer Pt10 Clusters: Amorphization and Role of the Support Material in a Highly Active CO Oxidation Catalyst” |
I-80. |
“Bandgap Inhomogeneity of a PbSe Quantum Dot Ensemble from Two-Dimensional Spectroscopy and Comparison to Size Inhomogeneity from Electron Microscopy” |
I-79. |
“Water Oxidation by Size Selected Co27 Clusters Supported on Fe2O3” |
I-78. |
“Temperature-Dependent Evolution of the Oxidation States of Cobalt and Platinum in Co1-xPtx Clusters under H2 and CO + H2 Atmospheres” |
I-77. |
Editorial: “Nanocatalysis” |
I-76. |
“In Situ Study of the Electronic Structure of Atomic Layer Deposited Oxide Ultrathin Films upon Oxygen Adsorption Using Ambient Pressure XPS” |
I-75. |
“Electrochemical Behaviour of Naked Sub-Nanometre Sized Copper Clusters and Effect of CO2” |
I-74. |
“Catalysis Applications of Size-selected Cluster Deposition” |
I-73. |
“Catalysis by Clusters with Precise Number of Atoms” |
I-72. |
“Carbon Dioxide Conversion to Methanol over Size-selected Cu4 Clusters at Low Pressures” |
I-71. |
“Pronounced Size Dependence in Structure and Morphology of Gas-Phase Produced, Partially Oxidized Cobalt Nanoparticles under Catalytic Reaction Conditions” |
I-70. |
“Fischer−Tropsch Synthesis at a Low Pressure on Subnanometer Cobalt Oxide Clusters: The Effect of Cluster Size and Support on Activity and Selectivity” |
I-69. |
“Editorial: Size-Selected Clusters and Particles: From Physical Chemistry and Chemical Physics to Catalysis” |
I-68. |
“A Near Ambient Pressure XPS Study of Subnanometer Silver Clusters on Al2O3 and TiO2 Ultrathin Film Supports” |
I-67. |
“Effect of the size-selective silver clusters on lithium peroxide morphology in lithium–oxygen batteries” |
I-66. |
“PdnAg(4-n) and PdnPt(4-n) Clusters on MgO (100): A Density Functional Surface Genetic Algorithm Investigation” |
I-65. |
“Atomically Precise (Catalytic) Particles Synthesized by a Novel Cluster Deposition Instrument” |
I-64. |
“Support and Oxidation Effects on Subnanometer Palladium Nanoparticles” |
I-63. |
“Size and Support Dependent Evolution of the Oxidation State and Structure by Oxidation of Subnanometer Cobalt Clusters” |
I-62. |
“Reaction Mechanism for Direct Propylene Epoxidation by Alumina-Supported Silver Aggregates: The Role of the Particle/Support Interface” |
I-61. |
“Catalytic Oxidation of Cyclohexane by Size-selected Palladium Clusters Pinned on Graphite” |
I-60. |
“Oxidation and Reduction of Size-Selected Subnanometer Pd Clusters on Al2O3 Surface” |
I-59. |
“Size-Dependent Subnanometer Pd Cluster (Pd4, Pd6 and Pd17) Water Oxidation Electrocatalysis” |
I-58. |
“Atomic Layer Deposition of a Submonolayer Catalyst for the Enhanced Photoelectrochemical Performance of Water Oxidation with Hematite” |
I-57. |
“Structure Sensitivity of Oxidative Dehydrogenation of Cyclohexane over FeOx and Au/Fe3O4 Nanocrystals” |
I-56. |
“Controlling the Particle Size of ZrO2 Nanoparticles in Hydrothermally Stable ZrO2/MWCNT Composites” |
I-55. |
“Stable Subnanometer Cobalt Oxide Clusters on Ultrananocrystalline Diamond and Alumina Supports: Oxidation State and the Origin of Sintering-Resistance” |
I-54. |
“Oxidative Dehydrogenation of Cyclohexane on Cobalt Oxide (Co3O4) Nanoparticles: |
I-53. |
“Support-dependent Performance of Size-selected Subnanometer Cobalt Cluster-Based Catalysts in the Dehydrogenation of Cyclohexene” |
I-52. |
“CO Oxidation by Subnanometer AgxAu3–x Supported Clusters via Density Functional Theory Simulations” |
I-51. |
“Exploring Computational Design of Size-Specific Subnanometer Clusters Catalysts” |
I-50. |
“Oxidative Dehydrogenation of Cyclohexene on Size Selected Subnanometer Cobalt Clusters: Improved Catalytic Performance via Evolution of Cluster-Assembled Nanostructures” |
I-49. |
“A First-Principle Theoretical Approach to Heterogeneous Nanocatalysis” |
I-48. |
“Simultaneous Measurement of X-ray Small Angle Scattering, Absorption, and Reactivity: A Continuous Flow Catalysis Reactor” |
I-47. |
Communication: “Suppression of Sintering of Size-Selected Pd Clusters under Realistic Reaction Conditions for Catalysis” |
I-46. |
“Cleavage of the C-O-C Bond on Size-Selected Subnanometer Cobalt Catalysts and on |
I-45. |
“Size-Dependent Selectivity and Activity of Silver Nanoclusters in the Partial Oxidation of Propylene to Propylene Oxide and Acrolein: A Joint Experimental and Theoretical Study” |
I-44. |
“Oxidative Decomposition of Methanol on Subnanometer Palladium Clusters: The Effect of Catalyst Size and Support Composition” |
I-43. |
“Combined TPRx, in situ GISAXS and GIXAS Studies of Model Semiconductor-Supported Platinum Catalysts in the Hydrogenation of Ethene” |
I-42. |
“Increased Silver Activity for Direct Propylene Epoxidation via Subnanometer Size Effects” |
I-41. |
“Growth of Metal Oxide Nanowires from Supercooled Liquid Nanodroplets” |
I-40. |
“Combined Temperature Programmed Reaction and in-Situ X-ray Scattering Studies of Size-Selected Silver Clusters under Realistic Reaction Conditions in the Epoxidation of Propene” |
I-39. |
“Subnanometre Platinum Clusters as Highly Active and Selective Catalysts for the Oxidative Dehydrogenation of Propane” |
I-38. |
“Selective Propene Epoxidation on Immobilized Au6-10 Clusters: The Effect of Hydrogen and Water on Activity and Selectivity” |
I-37. |
“Optical Properties of Gold Nanoparticles Produced by the Assembly of Size-Selected Clusters: Covering the full Visible Wavelength Range in the Smallest Particle Size Regime” |
I-36. |
“Charge Transfer Initiated Nitroxyl Chemistry on Free Silver Clusters Ag2-5-: Size Effects and Magic Complexes” |
I-35. |
“Supported Gold Clusters and Cluster-Based Nanomaterials: Characterization, Stability and Growth Studies by In Situ GISAXS under Vacuum Conditions and in the Presence of Hydrogen” |
I-34. |
“Reactivity of Supported Platinum Nanoclusters Studied by In Situ GISAXS: Clusters Stability under Hydrogen” |
I-33. |
“Anomalous Grazing Incidence Small-Angle X-ray Scattering Studies of Platinum Nanoparticles formed by Cluster Deposition” |
I-32. |
“Ultrafast Nuclear Dynamics Induced by Photodetachment of Ag2- and Ag2O2-: Oxygen Desorption from a Molecular Silver Surface” |
I-31. |
“Coherent Control of the Dynamics of Alkali-Aggregate Fragmentation” |
I-30. |
“Thermal Stability of Supported Platinum Clusters Studied by In Situ GISAXS” |
I-29. | “Femtosecond Investigations on the Ultrafast Photodissociation Dynamics of CpMn(CO)3 and its Fragment Ions” C. Lupulescu, S. Vajda, A. Lindinger, A. Merli, L. Wöste, Phys. Chem. Chem. Phys., 6, 3420-3425 (2004), DOI: 10.1039/b402246g, link |
I-28. |
“Optimal Control of Ionization Processes in NaK: Comparison between Theory and Experiment” |
I-27. |
“Optimal Control of Multi-Photon Dissociation and Ionization Processes in Small NamKn Clusters” |
I-26. |
“Strongly Cluster Size Dependent Reaction Behavior of CO with O2 on Free Silver Cluster Anions” |
I-25. |
“Coherent Control of Alkali Cluster Fragmentation Dynamics” |
I-24. |
“One Parameter fs-Pulse Form Control on NaK and Na2K” |
I-23. |
“Femtosecond Pump-Probe Experiments on Non-Stoichiometric Sodium-Fluoride Clusters: |
I-22. |
“Deciphering the Reaction Dynamics Underlying Optimal Control Laser Fields” |
I-21. |
“Comparative Investigations of the Phase Shift Distribution by Interferometric Phase Microscopy and fs-Laser-Pulse Analysis on Biological Cells” |
I-20. |
“Control of Photoinduced Processes by Optimally Shaped Laser Pulses” |
I-19. |
“Observation and Theoretical Description of the Periodic Geometric Rearrangement in Electronically Excited Nonstochiometric Sodium-Fluoride Clusters” |
I-18. |
“Analysis and Control of Ultrafast Photodissociation Processes in Organometallic Molecules” |
I-17. |
“Control of Wavepacket Dynamics in Mixed Alkali Metal Clusters by Optimally Shaped fs Pulses” |
I-16. |
“Analysis and Control of Laser Induced Fragmentation Processes in CpMn(CO)3” |
I-15. |
“Feedback Optimization of Shaped Femtosecond Laser Pulses for Controlling the Wavepacket Dynamics and Reactivity of Mixed Alkaline Clusters” |
I-14. |
“Ultrafast Fragmentation and Vibrational Dynamics of Triatomic Hetero- and Homonuclear Alkali Metal Clusters” |
I-13. |
“Reactions of Size-Selected Metal Cluster Ions” |
I-12. |
“The Relaxation from Linear to Triangular Ag3 Probed by Femtosecond Resonant Two-Photon Ionization” |
I-11. |
“Observation of Predissociated Excited States in Mixed Alkali Trimer Clusters Na2K and K2Na: Time-Resolved Spectroscopy of Bound-Free Transitions” |
I-10. |
“Reactions of Size-Selected Positively Charged Nickel Clusters with Carbon Monoxide in Molecular Beams” |
I-9. |
“Angular Dependences of Third Harmonic Generation from Microdroplets” |
I-8. |
“Picosecond Tryptophan Fluorescence of Human Blood Serum Orosomucoid” |
I-7. |
“Femtosecond to Nanosecond Solvation Dynamics in Pure Water and inside γ-Cyclodextrin Cavity” |
I-6. |
“Nanosecond Fluorescence of Tryptophans in Cytochrome P450SCC (CYP11A1): |
I-5. |
“Time-Resolved Spectroscopy of Polymethine J-Aggregates” |
I-4. |
“Time-Resolved Fluorescence Study of Chain Dynamics. I. Poly(Methacrylic Acid) in Dilute Water Solutions” |
I-3. |
“Time-Resolved Fluorescence Study of Micellizing Block Copolymers” |
I-2. |
“Study of Polymer Chain Dynamics in Solution by Time-Resolved Spectrofluorometry” |
I-1. |
“Nanosecond fluorometry of the single tryptophan in cytochrome P-450e (P450IIB2)” |
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II. Refereed book chapters
II-16. |
“Synchrotron Characterization of Clusters for Catalysis” |
II-15. |
“Subnanometer Size Clusters in Heterogeneous Catalysis, Electrocatalysis and Batteries” |
II-14. | “Modification of Gas Aggregation Sources: High Pressure and Reactive Gas Magnetron Sputtering” L. Kolipaka, S. Vajda, DOI: 10.1002/9783527698417.ch13, link in Gas Phase Synthesis of Nanoparticles, Wiley-VCH, Ed.: Y. Huttel, Chapter 2, ISBN: 978-3-527-34060-6, published June 2017, invited chapter |
II-13. |
“Atomistic and Electronic Structure Methods for Nanostructured Oxide Interfaces” |
II-12. |
“Physical Fabrication of Nanostructured Heterogeneous Catalysts” |
II-11. |
“Ultrafast Dynamics & Control: From Electronic State Population Control to Selective Bond Breaking", |
II-10. |
“Catalysis by Size-Selected Clusters”, |
II-9. |
“Smallest Size Regime: Control of Ultrafast Dynamics” |
II-8. |
“Control of Photoinduced Processes by Optimally Shaped Laser Pulses in MnCp(CO)3: Recovering the Information Content Coded in the Optimal Pulse Form” |
II-7. |
“Femtosecond Spectroscopy on Metal Clusters” |
II-6. |
“Controlling the Vibration and Dissociation Dynamics in Triatomic Alkaline Clusters” |
II-5. |
“Analysis and Feedback Control of Ultrafast Fragmentation Processes in CpMn(CO)3” |
II-4. |
“Feedback Control of Alkali Dimers with Sinusoidal Phase Modulated fs-Pulses” |
II-3. |
“Time-Resolved Observation of Geometrical Reorientations of Metal Clusters” |
II-2. |
“Controlling the Vibration and Dissociation Dynamics in Small Molecules and Clusters", |
II-1. |
“Size Dependent Ultrafast Relaxation Phenomena in Metal Clusters” |
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III. Publications in journals - not refereed papers
III-1. |
“Tiny Trimer, Big Results”, |
IV. Publications in conference proceedings
IV-13. |
“Time-resolved imaging and analysis of single atom diffusion on graphene oxide” |
IV-12. |
“In situ Real Time Monitoring of Pt-VO2 Nanoparticle-Nanowire Assembly by GISAXS” |
IV-11. |
“Supported Size-Selected Clusters as Model Nanocatalysts for Highly Selective and Efficient Oxidation Reactions” |
IV-10. |
“Optimal Control on Multi-Photon Ionization Dynamics of Small Alkali Aggregates” |
IV-9. |
“Spectroscopy of Mass-Selected Neutral Clusters: Femtosecond Dynamics of Agn” |
IV-8. |
“Orosomucoid: A Global Analysis of Tryptophan Fluorescence” |
IV-7. |
“Intramolecular Energy Transfer in a Novel Reactive Fluorescent Dye” |
IV-6. |
“Cyclodextrin/Laser Dye Complexation and Spectroscopy” |
IV-5. |
“Time-resolved Fluorescence Study of Intramolecular Energy Transfer” |
IV-4. |
“Spectroscopy of New Reactive Fluorescent Dyes: A Model System for Energy Transfer Study” |
IV-3. |
“Solvation Dynamics” |
IV-2. |
“Time-resolved Spectroscopy of Polymethine J-aggregates” |
IV-1. |
“Dynamics of Block Copolymers by Fluorescence Measurements” |
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V. Preprints
V-11. |
“Size-and support-dependent electronic and catalytic properties of size selected cluster catalysts on methanation of CO: A combined GIXAS, GISAXS and TPRx study”, |
V-10. |
“In Situ X-ray Studies of Subnanometer and Nanometer Size Cluster-Based Catalysts in Selective oxidation Reactions”, |
V-9. |
“Subnanometer to Nanometer Size Catalysts for C-H Bond Activation: From Precious Metals to Alternatives”, |
V-8. |
“Gold Doped Cobalt Oxide Nanocatalysts: An in-situ Investigation Using Synchrotron Radiation”, |
V-7. |
“Size-and composition optimized Sub-Nanometer and nm size catalysts for low-temperature jet-fuel activation”, |
V-6. |
“In-situ Real Time GIXAS/GISAXS Study of Oxidative Dehydrogenation of Cyclohexene on Size Selected Sub-Nanometer Cobalt Cluster Catalysts”, |
V-5. |
“Grazing Incidence Small-angle X-ray Scattering Studies of Nano-Metal Catalysts”, |
V-4. |
“Recent Advances of GISAXS at APS”, |
V-3. |
“Highly Selective Catalytic Oxidation Reactions: I. Oxidative Dehydrogenation of Propane (ODHP) by Size-Selected Platinum Catalysts and III. Oxidation of Alkenes on Size-Selected Silver and Gold Clusters and Nanoparticles”, |
V-2. |
“In Situ GISAXS Studies of the Thermal Stability and Temperature Induced Growth of Supported Cluster-Based Platinum and Gold Nanoparticles”, |
V-1. |
“Anomalous Grazing Incidence Small-Angle X-Ray Scattering Studies of Platinum Nanoparticles Formed by Cluster Deposition”, |
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VI. Publications in Books of Abstracts - extended reviewed abstracts
VI-3. |
“Strongly Size-Dependent Catalytic Activity and Selectivity of Monodisperse Gold and Silver Nanocatalysts in the Direct Oxidation of Propylene to Propylene Oxide”, |
VI-2. |
“Theoretical and Experimental Studies of Propane Dehydrogenation on Sub-Nanometer Pt Clusters: Unique Activity and Selectivity to Propylene”, |
VI-1. |
“In-situ, Real-Time GISAXS and TPR Studies on Size Selected Cluster Catalyst: Understanding Size/Shape Effect in Catalysis”, |
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VII. Patents
VII-7. |
US Patent No. US 11,028,490 B2 |
VII-6. |
US Patent No. US 10,654,772709A1 |
VII-5. |
US Patent No. 10,385,032 |
VII-4. |
US Patent No. 9,849,455 B2 |
VII-3. |
US Patent No. 9,496,590 B2 |
VII-2. |
US Patent Divisional No. US 8,148,293 B2 |
VII-1. |
US Patent No. 8,143,189 B2 |
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VIII. Invited talks at international conferences
VIII-100. |
"Size selected sub-nm clusters in oxidative and hydrogenation reactions: Exploring size, composition and support effects in catalysis", |
VIII-99. |
"Subnanometer size- and composition selected clusters in hydrogenation and oxidative dehydrogenation reactions: Size, composition and support effects", |
VIII-98. | "Combined in situ synchrotron X‐ray scattering, X‐ray absorption and mass‐spectroscopy studies of nanocatalysts under realistic reaction conditions", Analytix 2023, January 9-12, 2023, Sapporo, Japan Invited talk |
VIII-97. |
“Subnanometer to Nanometer Size Model Catalysts in Industrially Relevant Reactions”, |
VIII-96. | “Size selected sub-nm clusters in heterogenous catalysis: Exploring size, composition and support effects”, Clustertreffen 2022, October 3-7, 2022, Herzogenhorn, Germany Invited talk |
VIII-95. |
“Oxidative dehydrogenation of cyclohexene on atomically precise subnanometer Cu, Pd and CuPd clusters: Controlling catalyst’s performance by cluster size, atomic composition and support”, |
VIII-94. | “Size-Selected Clusters: From Heterogenous Catalysis to Electrocatalysis and Li-O2 Batteries”, Nanomeet 2022, August 14-19, 2022, Edinburgh, Scotland, United Kingdom Keynote talk |
VIII-93. |
“Size-Selected Clusters: From Heterogenous Catalysis to Electrocatalysis and Li-O2 Batteries”, |
VIII-92. | “Subnanometer bimetallic clusters as oxidation and dehydrogenation catalysts”, Cluster-Surface Interactions 2022 (CSI 2022) , April 1-4, 2022, Portofino Santa Margherita Ligure, Italy Invited talk |
VIII-91. |
“Introduction of the J. Heyrovský Nanocatalysis Program: Catalysis by Nano- and Subnanometer Size Catalysts” |
VIII-90. |
“Catalysis by Mono- and Bimetallic Sub-nm Clusters” |
VIII-89. |
“Size-Selected Clusters: From Heterogenous Catalysis to Electrocatalysis” |
VIII-88. |
“Catalytic Functions of Subnanometer Metal Clusters & Alloys” |
VIII-87. |
“Catalysis by Size- and Composition Selected Subnanometer Clusters” |
VIII-86. |
“Catalysis by Mono- and Bimetallic Subnanometer Clusters & Bridging the Pressure and Materials Gap” |
VIII-85. |
“Catalysis by Mono- and Bimetallic Subnanometer Clusters” |
VIII-84. |
“Catalysis and electrocatalysis by size and composition selected subnanometer clusters” |
VIII-83. |
“Catalysis by size- and composition selected clusters: Insights from in situ studies” |
VIII-82. |
“Catalysis by size- and composition selected clusters: Insights from in situ studies” |
VIII-81. |
“Catalysis and Electrocatalysis by Size and Composition Selected Clusters” |
VIII-80. |
“Catalysis and electrocatalysis by size and composition selected subnanometer clusters” |
VIII-79. |
“X-ray Characterization of Subnanometer Cluster-based Catalysts” |
VIII-78. |
“Cluster Size Effects in Catalysis and Electrocatalysis” |
VIII-77. |
“Cluster Size Effects in Catalysis, Electrocatalysis and Batteries” |
VIII-76. |
“Size, Composition and Support Effects in Catalysis & Electrocatalysis by Clusters” |
VIII-75. |
“Size, Composition and Support Effects in Catalysis by Clusters” |
VIII-74. |
“Size-Selected Clusters as Single-Site Catalysts and Electrocatalysts” |
VIII-73. |
“Size Selected Cobalt Clusters in Fischer-Tropsch Reaction (FTS)” |
VIII-72. |
“Catalysis by Subnanometer Clusters” |
VIII-71. |
“Size Selected Cobalt Clusters in Fischer-Tropsch Reaction“, |
VIII-70. |
“Cluster Size Effects in Catalysis, Electrocatalysis and Batteries” |
VIII-69. |
“Cluster-Based Functional Materials: Size-Dependent Performance of Subnanometer Clusters” |
VIII-68. |
“Size Effects in Catalysis by Cluster with Precise Number of Atoms” |
VIII-67. |
“Cluster size matters: Strongly size-dependent performance of subnanometer clusters in heterogeneous catalysis, electrocatalysis and Li-air batteries” |
VIII-66. |
“Size and support effects in catalysis by subnanometer and nanometer size clusters” |
VIII-65. |
“Cluster size matters: Size-dependent performance of subnanometer clusters in heterogeneous catalysis, electrocatalysis and Li-air batteries” |
VIII-64. |
“Strongly size-dependent performance of subnanometer size clusters in heterogeneous catalysis, electrocatalysis and batteries” |
VIII-63. |
“Cluster size matters: Size-driven performance of subnanometer clusters in catalysis, electrocatalysis and Li-air batteries” |
VIII-62. |
“The Effect of Particle Size, Composition and Support on (Electro)Catalyst Performance: Insights from in Situ and ex Situ Studies” |
VIII-61. |
“Catalysis and Electrocatalysis by Clusters: Size, Composition and Support Effects” |
VIII-60. |
“Selective Bond Breaking and Making on Cluster-Based Catalysts Designed at the Subnanometer to the Nanometer Scale: The Interplay between in situ Studies and Atomistic Simulations” |
VIII-59. |
“In Situ X-ray Studies of Subnanometer and Nanometer Size Cluster-Based Catalysts in Selective Oxidation Reactions” |
VIII-58. |
“Tuning Catalyst Performance via Optimizing Cluster Size, Composition and Support: The Role of in situ Techniques in Catalyst Design” |
VIII-57. |
“Tuning Catalyst and Electrocatalyst Performance via Optimizing Cluster Size, Composition and Support: The Role of in Situ and ex Situ Techniques in the Studies of Model and real Catalysts” |
VIII-56. |
“Tuning Performance of Heterogeneous- and Electrocatalysts through Optimizing Particle Size, Composition and Support: The Role of in situ and ex situ Techniques” |
VIII-55. |
“Tuning Performance via Optimizing Particle Size, Composition and Support: |
VIII-54. |
“Subnanometer Cluster-Based Catalysts: The Effect of Cluster Size and Composition, Support Chemistry and Reaction Conditions on the Performance of the Catalyst” |
VIII-53. |
“Subnanometer Cluster Based Catalysts: Size and Support Effects in Heterogeneous- and Electrochemical Reactions” |
VIII-52. |
“Electrochemistry by Subnanometer Clusters: Strong Size Effects in Water Splitting and Lithium-Air Batteries” |
VIII-51. |
“Tuning the Performance of Catalyst and Electrocatalysts via Size, Composition, Support and Assembly of Clusters” |
VIII-50. |
“Design of Catalytic Materials in the Subnanometer and Nanometer Size Range: From the Understanding of Size, Composition and Support Effects via in Situ and ex Situ Studies, to Optimizing Performance” |
VIII-49. |
“Atomic Precision Design of Functional Composite Materials at the Subnanometer and Nanometer Scale” |
VIII-48. |
”Subnanometer to Nanometer Size Catalysts for C-H bond Activation: From Precious Metals to Alternatives” |
VIII-47. |
“Bridging the Materials and Pressure Gap: Catalysis by Subnanometer and Nanometer Clusters and their Assemblies under Realistic Reaction Conditions” |
VIII-46. |
“Catalysis by Subnanometer and Nanometer Size Clusters: The Effect of Support, Size, Composition, Assembly and Oxidation State on Catalyst Performance” |
VIII-45. |
“Catalyst Design at the Subnanometer to Nanometer Scale: Optimizing Function via Cluster Size, Composition, and Support” |
VIII-44. |
“Catalyst Design at the Subnanometer and Nanometer Scale: Optimizing Function via Cluster Size & Composition, Support Composition and Additives” |
VIII-43. |
“Subnanometer Clusters and Nanoscale Materials Assembled from Clusters: Tuning Catalyst Performance via Size, Composition and Support” |
VIII-42. |
“Catalysis by Size-Selected Subnanometer and Nanometer Clusters under Realistic Reaction Conditions: The Role of Cluster Size, Morphology, Composition, Assembly and Oxidation State” |
VIII-41. |
“Subnanometer and Nanometer Scale Materials: The Role of in situ X-ray Techniques and Microscopies for Fundamental Insights in Catalyst Design” |
VIII-40. | “Materials Design at the Subnanometer to Nanometer Scale” VIII. Prague Workshop on Photoinduced Molecular Processes, March 18-22, 2012, Prague, Czech Republic Invited talk |
VIII-39. |
“Sub-Nanometer Clusters and Cluster-Assembled Nanomaterials: Composition and Catalytic Properties” |
VIII-38. |
“Oxidative Dehydrogenation on Sub-nm Cobalt Clusters: I. The Effect of Cluster Size and Support on Catalyst Performance & III. Improved Performance of Cluster-Assembled Nanostructures” |
VIII-37. |
“Sub-Nanometer and Nanometer Size Clusters: Bridging the Size -and Pressure Gap between Model and Practical Catalysts” |
VIII-36. |
“In Situ Studies of Well defined Catalysts: Bridging the Size Gap and Interconnecting Studies of Model and Practical Catalysts” |
VIII-35. | “Sub-Nanometer Clusters as Building Blocks for (Multi)functional Nanoalloys” International Conference COST Action “Nanoalloys” October 12-14, 2011, Limerick, Ireland Invited talk |
VIII-34. | “Catalysis by Sub-Nanometer Size Gold Clusters” 242nd American Chemical Society National Meeting, August 28 - September 1, 2011, Denver, Colorado, USA Invited talk |
VIII-33. | “The Use of in Situ GISAXS and GIXAS Techniques at the Design of New Classes of Bond-Selective Catalytic Materials in the Sub-Nanometer and Nanometer Size Regime” American Crystallographic Association 2010 Annual Meeting, July 24-29, 2010, Chicago, Illinois, USA Invited talk |
VIII-32. | “Bridging the Gap between the Sub-Nanometer and Nanometer Size Regime & Coupling Studies of Model and Practical Catalysts” Cluster-Surface Interactions, July 5-8, 2010, Stratford-on-Avon, Great Britain Invited talk |
VIII-31. | “Selective Bond Breaking and Making by Nanocatalysts: I. Bridging the Sub-Nanometer and Nanometer Size Range & III. Coupling the Studies of Model and “Real” Catalysts” Air Force Office of Scientific Research Contractors’ Meeting 2010, May 24-26, 2010, Chantilly, Virginia, USA Invited talk |
VIII-30. |
“Catalysts Designed at the Subnanometer to the Nanometer Scale for Bond-Selective Reactions” |
VIII-29. |
Had to withdraw due conflicting schedule |
VIII-28. |
“Size, Composition and Support Effects in Bond-Selective Chemistry by Catalysts Designed at the Subnanometer to the Nanometer Scale” |
VIII-27. |
“Size, Composition and Support Effects in Bond-Selective Chemistry by Catalysts Designed at the Subnanometer to the Nanometer Scale” |
VIII-26. |
“Selective Bond Breaking and Making on Size-Selected Clusters: The Role of Size, Composition and Support” |
VIII-25. |
“X-Ray Scattering and Spectroscopy Studies of Model Nanocatalysts” |
VIII-24. |
“Nanocatalysis by Size-Selected Clusters under Realistic Reaction Conditions” |
VIII-23. |
“Partial Oxidation Reactions on Size-Selected Clusters: Towards the Understanding of the Size/Shape & Function Relationship in Catalysis” |
VIII-22. |
“Nanocatalysis on Size-Selected Clusters under Realistic Reaction Conditions: Towards the Understanding of the Size/Shape & Function Relationship in Catalysis” |
VIII-21. |
“Nanocatalysis on Size-Selected Clusters under Realistic Reaction Conditions” |
VIII-20. |
“Supported Size-Selected Clusters in Partial Oxidation Reactions: Selective Bond Activation under Realistic Reaction Conditions” |
VIII-19. |
“Cluster-Based Materials: Novel Nanomaterials with Distinct Size-Dependent Chemical & Physical Properties” |
VIII-18. |
“Free and Supported Clusters and Molecules: |
VIII-17. |
“Towards the Understanding of Size/Shape and Function Relationship in Catalysis of Complex Reactions” |
VIII-16. |
“Clusters and Cluster-Based Nanostructures: New Materials with Distinct Physical and Chemical Properties” |
VIII-15. |
“Highly Selective Partial Oxidation Reactions on Size-Selected Nanocatalysts: Towards the Understanding of Size/Shape & Function Relationship in Catalysis” |
VIII-14. | “Supported Size-Selected Clusters as Model Nanocatalysts for Highly Selective and Efficient Oxidation Reactions” XII ISMB (International Symposium on Molecular Beams), May 27-June 1, 2007, Freiburg, Germany Invited hot topic talk |
VIII-13. | “GISAXS Studies of Gold and Platinum Nanoparticles Formed by Atomic Cluster Deposition” The 2006 Meeting of the American Crystallographic Association, July 22-27, 2006, Honolulu, Hawaii, USA Invited talk |
VIII-12. |
“Highly Stable Cluster-Based Au and Pt Model Nanocatalysts on Oxide Surfaces: |
VIII-11. |
Had to turn the invitation down due to a conflict with a talk given at the March APS meeting Vth Prague Workshop on Photoinduced Molecular Processes, March 12 - 14, 2006, Prague, Czech Republic |
VIII-10. |
“In Situ GISAXS Studies of the Themal Stability and Temperature Induced Growth of Supported Cluster-Based Platinum and Gold Nanoparticles” |
VIII-9. |
“Gas-Phase Dynamics in Small Molecules and Clusters: From Analysis to Control” |
VIII-8. |
“Control of Ultrafast Chemical Processes in Molecules and Aggregates” |
VIII-7. |
“Alkaline Clusters - Model systems for Laser Coherent Control” |
VIII-6. |
“The Use of Ultrafast Lasers in the Analysis and Control of Photoinduced Processes” |
VIII-5. |
“The Use of Ultrafast Lasers in the Analysis and Control of Photoinduced Processes in Small Molecules and Clusters” |
VIII-4. |
“Time-Resolved Spectroscopy of Bound-Free Transitions in Mixed Alkali Trimer Clusters Na2K and K2Na in Molecular Beams” |
VIII-3. |
“Reactions of Size-Selected Positively Charged Nickel Clusters with Carbon Monoxide in Molecular Beams” |
VIII-2. |
“Dynamics of Solvent Relaxation in Pure Water and in the γ-Cyclodextrin Cavity” |
VIII-1. |
“Dynamics of Solvent Shell and Ionic Sphere Relaxation: A Time-Resolved Fluorescence Study” |
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IX. Other invited talks
IX-6. |
“Catalysis by Subnanometer Clusters and Alloys” |
IX-5. |
“Catalysis by Size-Selected Clusters” |
IX-4. |
“Subnanometer to Nanometer Size Catalysts: Optimization of Function via Size, Composition, Support and Assembly” |
IX-3. |
“Size and Composition Optimized Nanocatalysts for Propulsion Applications: MURI Project Overview” |
IX-2. |
“Size and Composition Optimized Nanocatalysts for Propulsion Applications: In Situ Studies of (Model) Catalysts” |
IX-1. |
“Size and Composition Optimized Nanocatalysts for Propulsion Applications. Non-Oxidative and Oxidative Fuel Activation: Size, Composition & Support Effects” |
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X. Contributed talks at international conferences
Vajda as first author and presenter unless stated differently (talks presented by others with Vajda as coauthor are not listed)
X-44. |
“Oxidative dehydrogenation of cyclohexene on atomically precise subnanometer CumPdn clusters: The effect of cluster size, composition and support on performance”, |
X-43. | “Size selected sub-nm clusters in heterogenous catalysis, electrocatalysis and Li-O2 batteries”, Conference “Challenges on renewable energy storage”, August 28-September 1, 2022, Liblice, Czech Republic Oral presentation |
X-42. |
“Catalysis by Bimetallic Subnanometer Clusters”, |
X-41. |
“Size and Support Effects in Catalysis by Size-Selected Clusters”, |
X-40. |
“Design of C-H Bond Activation Catalysts at the Subnanometer to Nanometer Scale: Tuning Performance via Size, Composition, Doping, Support and Assembly”, |
X-39. |
“Composition dependent reduction of size-selected CoPt bimetallic clusters on Al2O3 thin film”, |
X-38. | “The Role of Cluster Size and Composition, the Nature of the Support/Interface on the Performance of Gas Phase Heterogeneous Catalysts and Electrocatalysts”, American Physical Society March Meeting 2014, March 3-7, 2010, Denver, Colorado, USA Oral presentation |
X-37. |
“Design of Catalysts at the Subnanometer to Nanometer Scale: Tuning Performance via Size, Composition, Doping, Support and Assembly”, |
X-36. |
“Tuning Catalyst Performance via Size, Composition, Support, Structural Fluxionality and Control of the Oxidation State of the Catalyst”, |
X-35. |
“Evolution of the Oxidation State and Morphology of Subnanometer to Nanometer Size Cobalt Catalysts: Detailed Insights from Combined in situ and ex situ Studies”, |
X-34. |
“Design of Catalysts at the Subnanometer to Nanometer Scale: Tuning Performance via Size, Composition, Support and Structural Fluxionality”, |
X-33. |
“Synthesis, Stability and Catalytic Activity of Hybrid Nanostructures Based on Subnanometer Clusters”, |
X-32. |
“Catalyst Design at the Subnanometer Scale: The Role of Size, Composition, Support and Structural Fluxionality”, |
X-31. |
“Dehydrogenation of Cyclohexene on Size Selected Subnanometer Cobalt Clusters: Improved Catalytic Performance via Structural Fluxionality of Cluster-Assembled Nanostructures”, |
X-30. |
“Selective Partial Oxidation of Propylene: Size-Dependent Activity and Selectivity of Catalysts Designed at the Subnanometer to Nanometer Scale”, |
X-29. |
“Size-Dependent Catalytic Activity and Selectivity of Subnanometer and Nanometer Size Silver Clusters in the Partial Oxidation of Propylene to Propylene Oxide and Acrolein”, |
X-28. |
“Novel Nanometer and Sub-Nanometer Size Catalysts for Oxidative and Non-Oxidative Dehydrogenation”, |
X-27. |
“Design of Catalysts at the Sub-Nanometer and nm Scale: The Role of in situ and ex situ Characterization Techniques in the Tuning of Catalytic Properties via Size, Composition and Support”, |
X-26. |
“Size- and Composition Optimized Sub-Nanometer and nm Size Catalysts for Low-Temperature Jet-Fuel Activation”, |
X-25. |
“Subnanometer Size-Selected Cobalt and Nickel Cluster Based Nanomaterials for Fischer-Tropsch Synthesis”, |
X-24. |
“Size, Composition and Support Effects in Nanocatalysis: I. Bridging the Sub-Nanometer and Nanometer Size Range & III. Coupling the Studies of Model and “Real” Catalysts”, |
X-23. |
“Coupling Studies of Model and Practical Nanocatalysts under Realistic Reaction Conditions and Bridging the Sub-Nanometer to Nanometer Gap”, |
X-22. |
“Activity and Selectivity of Size-Selected Sub-nm to Nanometer Size Silver Clusters in the Selective Oxidation of Propylene”, |
X-21. |
“Selective Propene Oxidation on Subnanometer Gold Clusters Supported on Amorphous Alumina”, |
X-20. |
“Highly Selective Oxidative Dehydrogenation of Propane on Sub-Nanometer Platinum Clusters”, |
X-19. |
“Selective Propene Oxidation to Propylene Oxide or Acrolein on Immobilized Au6-10 Clusters: The Effect of Hydrogen and Water on Selectivity and Activity”, |
X-18. |
“Nanocatalysis Size-Selected Clusters at Work under Realistic Reaction Conditions: Size, Shape, Composition and Support Effects”, |
X-17. |
“Strongly Size-Dependent Catalytic Activity and Selectivity of Monodisperse Gold and Silver Nanocatalysts in the Direct Oxidation of Propylene to Propylene Oxide”, |
X-16. |
Had to withdraw due to a conflict an invited talk presented at the VIth Prague Workshop on Photoinduced Molecular Processes |
X-15. |
“Highly Selective Catalytic Oxidation Reactions: I. Oxidative Dehydrogenation of Propane by Size-Selected Platinum Catalysts and III. Oxidation of Alkenes on Size-Selected Silver and Gold Clusters and Nanoparticles”, |
X-14. |
“Size-Selected Cluster Based Catalysts: Physical and Chemical Properties Studied by GISAXS, Mass Spectrometry and UV-VIS Spectroscopy”, |
X-13. |
“Highly Stable Cluster-Based Au and Pt Model Nanocatalysts on Oxide Surfaces: Synthesis, Characterization and Catalytic Properties”, |
X-12. |
“Highly Stable Gold and Platinum Model Nanocatalysts Fabricated from Size-Selected Clusters”, |
X-11. |
“Supported Gold and Platinum Clusters: Stability under Vacuum and Hydrogen at Elevated Temperatures; Optical Properties”, |
X-10. |
“Supported Gold Clusters and Cluster-Based Nanomaterials: Characterization, Stability and Growth Studies by in situ Grazing Incidence X-ray Small Angle Scattering”, |
X-9. |
“Supported Gold Clusters and Cluster-Based Nanoparticles: In Situ Grazing Incidence X-ray Small Angle Scattering Studies of Stability and Growth in Vacuum and in the Presence of Reactive Gases”, |
X-8. |
“Control of Photoinduced Processes by Optimally Shaped Laser Pulses: From Diatomics to Organometallic Molecules. Information Content Coded in the Pulse Forms”, |
X-7. |
“A New Insight into the Control of Molecular Dynamics in Organometallic Molecules: Interpretation of the Optimized Pulse Shapes in the Light of sub-40 fs Pulses”, |
X-6. |
“Fragmentation Control of Small Alkaline Clusters: What Can we Learn from the Optimized Pulse Shapes?”, |
X-5. |
“Analysis and Control of Ultrafast Photoinduced Reactions”, |
X-4. |
“Ultrafast Vibrational and Fragmentational Dynamics of Triatomic Homogeneous and Heterogeneous Alkali Metal Clusters”, |
X-3. |
“Fragmentation of Small Molecules and Clusters Studied by Femtosecond Spectroscopy in Molecular Beams”, |
X-2. |
“Reactions of Size Selected Positively Charged Nickel Clusters with CO”, |
X-1. |
“Spectroscopy on Size-Selected Nickel-Carbonyl Clusters: Study of the Femtosecond Time Evolution of the Neutral Clusters”, |
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XI. Invited talks at universities and scientific institutes
Vajda as first author and presenter (talks presented by others with Vajda as coauthor are not listed)
XI-88. |
"Subnanometer size- and composition selected clusters in selective oxidative dehydrogenation and hydrogenation reactions: Size, composition and support effects", |
XI-87. |
“Elucidation of Size- Composition and Support Effects in Catalysis by Atomically Precise Subnanometer Clusters”, |
XI-86. |
”Size- and Composition Selected (sub)Nanometer Clusters in Catalysis, Electrocatalysis & Batteries”, |
XI-85. |
“Catalysis by Size-Selected Clusters”, |
XI-84. |
“Catalysis by Size-Selected Clusters”, |
XI-83. |
“Catalysis and Electrocatalysis by Size Subnanometer Clusters”, |
XI-82. |
“Catalysis and Electrocatalysis by Size and Composition Selected Subnanometer Clusters”, |
XI-81. |
“Cluster Size Matters: Strongly Size-Dependent Performance of sub-nm and nm size Clusters in Heterogeneous Catalysis and Li-air Batteries”, |
XI-80. |
“Catalysis by Clusters with Precise Number of Atoms”, |
XI-79. |
“Subnanometer and Nanometer Size Clusters in Heterogeneous Catalysis, Electrocatalysis and Li-Air Batteries: Size and Support Effects”, |
XI-78. |
“Catalysis and Electrocatalysis by Clusters Designed at the Subnanometer to Nanometer Scale: Elucidation of Size, Composition and Support Effects”, |
XI-77. |
“The Effect of Particle Size, Composition and Support on the Performance of (Electro)Catalysts”, |
XI-76. |
“Catalysis and Electrocatalysis by Clusters: Size, Composition and Support Effects”, |
XI-75. |
“Tuning Catalyst’s Performance via Optimizing Particle Size, Composition and Support: The Role of in Situ Techniques in Catalysis Studies”, |
XI-74. |
“Controlling Oxidative Reactions by (Sub)Nanocatalyst Size, Morphology and Composition”, |
XI-73. |
“Subnanometer and Nanometer Scale Materials: From Isolated Clusters to Cluster-Assembled Catalyst and their Properties”, |
XI-72. |
“In Situ Studies of Catalyst Designed at the Subnanometer to Nanometer: The Role of the Evolution of Particle Morphology and Oxidation State for Catalyst Performance”, |
XI-71. |
“Catalyst Designed at the Sub-Nanometer to Nanometer Scale: Size-, Composition and Support Effects”, |
XI-70. |
“Design of Materials at the Subnanometer and Nanometer Scale”, |
XI-69. |
“Evolution of the Oxidation State and Reactivity as the Function of Clusters Size under Realistic Reaction Conditions”, |
XI-68. |
“Well-defined Sub-nm to nm Size Clusters in Dehydrogenation and Partial Oxidation Reactions: Cluster Size, Composition, Oxidation State, Morphology and Assembly Effects on Performance”, |
XI-67. |
“(Sub)nanometer Clusters and Cluster-Assembled Materials: Composition and Catalytic Properties”, |
XI-66. |
“Catalytic Properties of Sub-Nanometer Size-Selected Clusters and their Assemblies”, |
XI-65. |
“Design of Materials at the Sub-Nanometer and Nanometer Scale for (Electro)Catalysis”, |
XI-64. |
“Sub-Nanometer Clusters as Building Blocks for (Multi)functional Nanoalloys”, |
XI-63. |
|
XI-62. |
“Epoxidation of Propylene on Small Clusters and Nanoparticles”, |
XI-61. |
“Catalysis by Small Clusters and Nanoparticles: Bridging the Size Gap & Interconnecting Studies of Model and Practical Catalysts”, |
XI-60. |
“Catalysts Designed at the Subnanometer to the Nanometer Scale for Bond-Selective Reactions: Bridging the Size Gap & Coupling Studies of Model and Practical Catalysts”, |
XI-59. |
“Catalysis by Small Clusters and Nanoparticles”, |
XI-58. |
“Catalysis by Small Clusters and Nanoparticles under Realistic Reaction Conditions: I. Bridging the Subnanometer to Nanometer Size Range & III. Coupling the Studies of Model and Practical Catalysts”, |
XI-57. |
“Catalysis by Small Clusters and Nanoparticles”, |
XI-56. |
“Catalysts Designed at the Subnanometer to the Nanometer Scale for Bond-Selective Reactions: Bridging the Size Gap & Coupling Studies of Model and Practical Catalysts”, |
XI-55. |
“Selective Bond Breaking and Making by Nanocatalysts: I. Bridging the Sub-Nanometer and Nanometer Size Range & III. Coupling the Studies of Model and “Real” Catalysts”, |
XI-54. |
“Selective Bond Breaking and Making by Nanocatalysts: I. Bridging the Sub-Nanometer and Nanometer Size Range & III. Coupling the Studies of Model and “Real” Catalysts”, |
XI-53. |
“Nanocatalysis: Bridging the Gap”, |
XI-52. |
“Bond-Selective Chemistry on Catalysts Designed at the Subnanometer to the Nanometer Scale”, |
XI-51. |
“In Situ Studies of Sub-Nanometer Clusters in Epoxidation and Methanation/Fischer-Tropsch Reactions”, |
XI-50. |
“Size-Selected Nanocatalysts: Towards the Understanding of the Correlation between Size/Composition/Shape and Function”, |
XI-49. |
“Combined In Situ X-ray scattering and X-ray Absorption Studies of Size, Composition and Surface Effects in Catalysis”, |
XI-48. |
“Size, Composition, Morphology and Support Effects in Nanocatalysis”, |
XI-47. |
“Nanocatalysts for Highly Selective Partial Oxidation Reactions”, |
XI-46. |
“Size Effects in Catalysis at the Subnanometer to Nanometer Scale”, |
XI-45. |
“Nanocatalysis on Size-Selected Clusters under Realistic Reaction Conditions: Towards the Understanding of the Size/Shape & Function Relationship in Catalysis”, |
XI-44. |
“Nanocatalysis on Size-Selected Clusters: Towards the Understanding of the Size/Shape & Function Relationship in Catalysis”, |
XI-43. |
“Partial Oxidation Reactions on Size-Selected Clusters Studied under Realistic Reaction Conditions”, |
XI-42. |
“Nanocatalysis on Size-Selected Clusters under Realistic Reaction Conditions”, |
XI-41. |
“Nanocatalysis under Realistic Reaction Conditions: Does Size Matter?”, |
XI-40. |
“The Effect of Size and Composition of Highly Monodisperse Nanocatalysts in Selective Partial Oxidation Reactions”, |
XI-39. |
“Size and Shape Effects in Catalysis of Partial Oxidation Reactions”, |
XI-38. |
“Clusters and Cluster-Based Nanostructures: New Materials with Distinct Physical and Chemical Properties”, |
XI-37. |
“Towards the Understanding of the Size/Shape and Function Relationship in Catalysis of Complex Reactions”, |
XI-36. |
“Free and Supported Clusters and Molecules: I. Dynamics in Small Molecules and Clusters: From Analysis to Control & III. Clusters as Atomic Precision Building Blocks of Novel Nanomaterials”, |
XI-35. |
“Highly Selective Partial Oxidation Reactions on Size-Selected Nanocatalysts: Towards the Understanding of Size/Shape & Function Relationship in Catalysis Using in situ GISAXS and Mass Spectrometry”, |
XI-34. |
“Supported Size-Selected Clusters as Model Nanocatalysts for Highly Selective and Efficient Oxidation Reactions”, |
XI-33. |
“Size & Shape Effects in Oxidation Catalysis: Size-Selected Nanocatalysts Supported on Technologically Relevant Oxides Studied under Realistic Reaction Conditions”, |
XI-32. |
“Supported Size-Selected Clusters as Model Nanocatalysts for Highly Selective and Efficient Oxidation Reactions”, |
XI-31. |
“Cluster-Based Au and Pt Model Nanocatalysts on Oxide Supports: Synthesis, Stability and Catalytic Properties”, |
XI-30. |
“Highly Stable Cluster-Based Au and Pt Model Nanocatalysts on Oxide Supports: Synthesis, Characterization & Catalytic Properties”, |
XI-29. |
“Cluster-Based Au and Pt Model Nanocatalysts on Oxide Supports: Synthesis, Stability and Catalytic Properties”, |
XI-28. |
“Cluster-Based Au and Pt Model Nanocatalysts on Oxide Supports: Stability and Catalytic Properties”, |
XI-27. |
“Highly Stable Cluster-Based Au and Pt Model Nanocatalysts on Oxide Supports: Synthesis, Characterization & Catalytic Properties”, |
XI-26. |
“Grazing Incidence Small Angle X-Ray Scattering Studies of Gold and Platinum Nanoparticles Produced by Cluster Deposition”, |
XI-25. |
“Synchrotron X-Ray Studies of Gold and Platinum Nanoparticles Formed by Atomic Cluster Deposition”, |
XI-24. |
“Supported Platinum and Gold Clusters: Synthesis; X-ray Studies of Thermal Stability; UV-VIS Properties”, |
XI-23. |
“Supported Gold and Platinum Clusters & Cluster-Based Nanomaterials”, |
XI-22. |
“Sub-nm to 10 nm Size Gold Particles: Fabrication, Characterization & Properties”, |
XI-21. |
“Perspectives of Time-Resolved Cluster Studies”, |
XI-20. |
“Supported Gold and Platinum Clusters: Synthesis, X-ray Studies of Thermal Stability, UV-VIS Properties”, |
XI-19. |
“Supported Gold and Platinum Clusters & Cluster-Based Nanomaterials”, |
XI-18. |
“GISAXS Studies of the Temperature Induced Growth of Supported Platinum and Gold Nanoparticles”, |
XI-17. |
“GISAXS Studies of the Temperature Induced Growth of Supported Platinum and Gold Nanoparticles”, |
XI-16. |
“Temperature Induced Growth of Supported Platinum and Gold Nanoparticles”, |
XI-15. |
“Temperature Induced Growth of Supported Clusters”, |
XI-14. |
“Temperature Induced Growth of Supported Clusters”, |
XI-13. |
“Ultrafast Dynamics in Small Clusters and Molecules: From Analysis to Control”, |
XI-12. |
“Cluster-Based Catalysis”, |
XI-11. |
“Nanocatalysts: The Smaller the Better?”, |
XI-10. |
“Ultrafast Lasers as a Tool in the Analysis and Control of Photoinduced Processes in Small Molecules and Clusters”, |
XI-9. |
“Photophysics on the Femtosecond Time-Scale: Active Control of Photodissociation Processes”, |
XI-8. |
“Analysis and Control of Photoinduced Processes in Small Molecules and Clusters”, |
XI-7. |
“The Use of Ultrafast Lasers in the Analysis and Control of Photoinduced Processes in Small Molecules and Clusters”, |
XI-6. |
“Generation and Characterization of Modulated Ultrashort Laser Pulses“, |
XI-5. |
“Laser Control of Photodissociation in CpMn(CO)3”, |
XI-4. |
“Observation of Predissociated Excited States in Mixed Alkali Trimer Clusters Na2K and K2Na: Time-Resolved Spectroscopy of Bound-Free Transitions”, |
XI-3. |
“Femtosecond and Picosecond Solvation Dynamics in Pure Water and in the |
XI-2. |
“Polymer Chain Dynamics and Solvent Relaxation Studied by Time-Resolved Fluorescence Spectroscopy”, |
XI-1. |
“A Time-Resolved Fluorescence Study of: 1. Polymer Chain Conformational Changes and 2. Micellization of Block-Copolymers”, |
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