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Exploring the materials space in the smallest particle size range: from heterogeneous catalysis to electrocatalysis and photocatalysis

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    SYSNO ASEP0557496
    Document TypeJ - Journal Article
    R&D Document TypeJournal Article
    Subsidiary JČlánek ve WOS
    TitleExploring the materials space in the smallest particle size range: from heterogeneous catalysis to electrocatalysis and photocatalysis
    Author(s) Jašík, Juraj (UFCH-W) ORCID, RID
    Fortunelli, A. (IT)
    Vajda, Štefan (UFCH-W) RID, ORCID
    Source TitlePhysical Chemistry Chemical Physics. - : Royal Society of Chemistry - ISSN 1463-9076
    Roč. 24, č. 20 (2022), s. 12083-12115
    Number of pages33 s.
    Languageeng - English
    CountryGB - United Kingdom
    Keywordsray-absorption spectroscopy ; supported gold clusters ; in-situ gisaxs ; operando x-ray ; co oxidation ; electronic-structure ; hydrogen evolution ; highly efficient ; metal-clusters ; oxide-film
    Subject RIVCF - Physical ; Theoretical Chemistry
    OECD categoryPhysical chemistry
    Method of publishingOpen access
    Institutional supportUFCH-W - RVO:61388955
    UT WOS000789923300001
    EID SCOPUS85131325730
    DOI10.1039/d1cp05677h
    AnnotationUltrasmall clusters of subnanometer size can possess unique and even unexpected physical and chemical propensities which make them interesting in various fields of basic science and for potential applications, such as catalysis, photocatalysis, electrocatalysis, and optical and chemical sensors, just to name a few examples. These small particles often offer the tunability of their performance in an atom-by-atom fashion and an economic atom-efficient use of the metal loading. In this paper we review recent progress in the characterization and theory of well-defined subnanometer clusters in catalytic processes, and discuss their optical properties and stability, along with the potential of the size-selected clusters for the understanding of catalytic processes and for the development of new classes of catalysts.
    WorkplaceJ. Heyrovsky Institute of Physical Chemistry
    ContactMichaela Knapová, michaela.knapova@jh-inst.cas.cz, Tel.: 266 053 196
    Year of Publishing2023
    Electronic addresshttp://hdl.handle.net/11104/0331455
Number of the records: 1  

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