• español
  • English
  • français
  • Deutsch
  • português (Brasil)
  • italiano
    • español
    • English
    • français
    • Deutsch
    • português (Brasil)
    • italiano
    • español
    • English
    • français
    • Deutsch
    • português (Brasil)
    • italiano
    JavaScript is disabled for your browser. Some features of this site may not work without it.

    Parcourir

    Tout UVaDOCCommunautésPar date de publicationAuteursSujetsTitres

    Mon compte

    Ouvrir une session

    Statistiques

    Statistiques d'usage de visualisation

    Compartir

    Voir le document 
    •   Accueil de UVaDOC
    • PUBLICATIONS SCIENTIFIQUES
    • Departamentos
    • Dpto. Química Física y Química Inorgánica
    • DEP63 - Artículos de revista
    • Voir le document
    •   Accueil de UVaDOC
    • PUBLICATIONS SCIENTIFIQUES
    • Departamentos
    • Dpto. Química Física y Química Inorgánica
    • DEP63 - Artículos de revista
    • Voir le document
    • español
    • English
    • français
    • Deutsch
    • português (Brasil)
    • italiano

    Exportar

    RISMendeleyRefworksZotero
    • edm
    • marc
    • xoai
    • qdc
    • ore
    • ese
    • dim
    • uketd_dc
    • oai_dc
    • etdms
    • rdf
    • mods
    • mets
    • didl
    • premis

    Citas

    Por favor, use este identificador para citar o enlazar este ítem:http://uvadoc.uva.es/handle/10324/25471

    Título
    The equilibrium molecular structures of 2-deoxyribose and fructose by the semiexperimental mixed estimation method and coupled-cluster computations
    Autor
    Vogt, Natalja
    Demaison, Jean
    Cocinero, Emilio José
    Écija, Patricia
    Lesarri Gómez, Alberto EugenioAutoridad UVA Orcid
    Rudolph, Heinz Dieter
    Vogt, Jurgen
    Año del Documento
    2016
    Editorial
    RSC
    Descripción
    Producción Científica
    Documento Fuente
    Physical Chemistry Chemical Physics, 2016, 18, 15555
    Résumé
    ructose and deoxyribose (24 and 19 atoms, respectively) are too large for determining accurate equilibrium structures, either by high-level ab initio methods or by experiments alone. We show in this work that the semiexperimental (SE) mixed estimation (ME) method offers a valuable alternative for equilibrium structure determinations in moderate-sized molecules such as these monosaccharides or other biochemical building blocks. The SE/ME method proceeds by fitting experimental rotational data for a number of isotopologues, which have been corrected with theoretical vibration–rotation inter- action parameters (ai), and predicate observations for the structure. The derived SE constants are later supplemented by carefully chosen structural parameters from medium level ab initio calculations, including those for hydrogen atoms. The combined data are then used in a weighted least-squares fit to determine an equilibrium structure (rSE). We applied the ME method here to fructose and 2-deoxyribose e and checked the accuracy of the calculations for 2-deoxyribose against the high level ab initio rBO structure e fully optimized at the CCSD(T) level. We show that the ME method allows determining a complete and reliable equilibrium structure for relatively large molecules, even when experimental rotational information includes a limited number of isotopologues. With a moderate computational cost the ME method could be applied to larger molecules, thereby improving the structural evidence for subtle orbital interactions such as the anomeric effect.
    Revisión por pares
    SI
    DOI
    10.1039/c6cp01842d
    Patrocinador
    MINECO-FEDER CTQ2014-54464-R, CTQ2015-68148-C2
    Version del Editor
    dos.org/10.1039/c6cp01842d
    Idioma
    eng
    URI
    http://uvadoc.uva.es/handle/10324/25471
    Derechos
    openAccess
    Aparece en las colecciones
    • DEP63 - Artículos de revista [322]
    Afficher la notice complète
    Fichier(s) constituant ce document
    Nombre:
    2016PCCP18_15555_deoxyribose_fructose.pdf
    Tamaño:
    1.668Mo
    Formato:
    Adobe PDF
    Thumbnail
    Voir/Ouvrir

    Universidad de Valladolid

    Powered by MIT's. DSpace software, Version 5.10