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• • ·Editorial Board - english

    Page :IBC-IBC

    
  • ·Editorial Board - french

    Page :IFC-IFC

    
  • ·Bio-inspired hydrogen production/uptake catalysis

    Page :789-789

    Philippe Schollhammer, Jean Talarmin, Philippe Schollhammer, Jean Talarmin

    
  • ·Density functional theory on the larger active site models for [NiFe] hydrogenases: Two-state reactivity?

    Page :790-804

    Hong Wu, Michael B. Hall

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  • ·The role of pendant bases in molecular catalysts for H₂ oxidation and production

    Page :805-817

    Mary Rakowski DuBois, Daniel L. DuBois

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  • ·Nickel–thiolate and iron–thiolate cyanocarbonyl complexes: Modeling the nickel and iron sites of [NiFe] hydrogenase

    Page :818-833

    Tzung-Wen Chiou, Wen-Feng Liaw

    Résumé Résumé Plan Plan  
  • ·A DFT investigation on structural and redox properties of a synthetic Fe₆S₆ assembly closely related to the [FeFe]-hydrogenases active site

    Page :834-841

    Maurizio Bruschi, Claudio Greco, Giuseppe Zampella, Ulf Ryde, Christopher J. Pickett, Luca De Gioia

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  • ·On the electrochemistry of diiron dithiolate complexes related to the active site of the [FeFe]H₂ase

    Page :842-851

    Jean-François Capon, Frédéric Gloaguen, François Y. Pétillon, Philippe Schollhammer, Jean Talarmin

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  • ·Electrocatalysis of hydrogen evolution by synthetic diiron units using weak acids as the proton source: Pathways of doubtful relevance to enzymic catalysis by the diiron subsite of [FeFe] hydrogenase

    Page :852-860

    Stacey J. Borg, Saad K. Ibrahim, Christopher J. Pickett, Stephen P. Best

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  • ·The effect of bridgehead steric bulk on the ground state and intramolecular exchange processes of (μ-SCH₂CR₂CH₂S)[Fe(CO)₃][Fe(CO)₂L] complexes

    Page :861-874

    Michael L. Singleton, Roxanne M. Jenkins, Cory L. Klemashevich, Marcetta Y. Darensbourg

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  • ·Tuning the electronic properties of Fe₂(μ-arenedithiolate)(CO)_6−n(PMe₃)_n (n = 0, 2) complexes related to the [Fe–Fe]-hydrogenase active site

    Page :875-889

    Lennart Schwartz, Pradyumna S. Singh, Lars Eriksson, Reiner Lomoth, Sascha Ott

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  • ·Models of the iron-only hydrogenase: Synthesis and protonation of bridge and chelate complexes [Fe₂(CO)₄{Ph₂P(CH₂)_nPPh₂}(μ-pdt)] (n = 2–4) – evidence for a terminal hydride intermediate

    Page :890-905

    Fatima I. Adam, Graeme Hogarth, Shariff E. Kabir, Idris Richards

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  • ·Diiron chelate complexes relevant to the active site of the iron-only hydrogenase

    Page :906-914

    Salah Ezzaher, Jean-François Capon, Frédéric Gloaguen, Nelly Kervarec, François Y. Pétillon, Roger Pichon, Philippe Schollhammer, Jean Talarmin

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  • ·An azadithiolate bridged Fe₂S₂ complex as active site model of FeFe-hydrogenase covalently linked to a Re(CO)₃(bpy)(py) photosensitizer aiming for light-driven hydrogen production

    Page :915-921

    Weiming Gao, Jianhui Liu, Weina Jiang, Mei Wang, Linhong Weng, Björn Åkermark, Licheng Sun

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  • ·Nanoscale ensembles using building blocks inspired by the [FeFe]-hydrogenase active site

    Page :922-925

    Julie L. Boyer, Thomas B. Rauchfuss, Scott R. Wilson

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  • ·Hydrogen evolution catalyzed by {CpFe(CO)₂}-based complexes

    Page :926-931

    Vincent Artero, Marc Fontecave

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  • ·Diiron models for active site of FeFe-hydrogenase with aromatic thiolate bridges: Structures and electrochemistry

    Page :932-937

    Youtao Si, Mingqiang Hu, Changneng Chen

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  • ·Étude de la solubilité et des phases en équilibre dans le système quaternaire réciproque K⁺, Mn²⁺/Br⁻, (H₂PO₂)⁻//H₂O

    Page :938-941

    Vahit Alısoğlu, Vedat Adıguzel

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  • ·Nature as a crystal engineer: Trapping hydronium cations inside crystalline lattices – three heretofore unknown hydronium cations, two of which are geometrical isomers

    Page :942-944

    Ivan Bernal

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