A comparative study of the electrochemical and proton-reduction behaviour of diphosphine-dithiolate complexes [M2(CO)4(μ-dppm){μ-S(CH2) n S}] (M = Fe, Ru; n = 2, 3)

Enhanced hydrogen generation from formic acid by a biomimetic ruthenium complex with a covalently bonded phosphine ligand

(2017) Mei-Hua Chen et al.   INTERNATIONAL JOURNAL OF HYDROGEN ENERGY

Biomimetics of the [FeFe]-hydrogenase enzyme: Identification of kinetically favoured apical-basal [Fe 2 (CO) 4 (μ-H){κ 2 -Ph 2 PC(Me 2 )PPh 2 }(μ-pdt)] + as a proton-reduction catalyst

(2016) Shishir Ghosh et al.   JOURNAL OF ORGANOMETALLIC CHEMISTRY

Hydrogenase biomimetics with redox-active ligands: Electrocatalytic proton reduction by [Fe 2 (CO) 4 (κ 2 -diamine)(μ-edt)] (diamine = 2,2′-bipy, 1,10-phen)

(2016) Shishir Ghosh et al.   POLYHEDRON

Hydrogenase biomimetics: structural and spectroscopic studies on diphosphine-substituted derivatives of Fe2(CO)6(µ-edt) (edt = ethanedithiolate) and Fe2(CO)6(µ-tdt) (tdt = 1,3-toluenedithiolate)

(2016) Shahed Rana et al.   TRANSITION METAL CHEMISTRY

Protonation/Reduction of Carbonyl-Rich Diiron Complexes and the Direct Observation of Triprotonated Species: Insights into the Electrocatalytic Mechanism of Hydrogen Formation

(2016) Yu-Chiao Liu et al.   ACS Catalysis

A Ruthenium-Based Biomimetic Hydrogen Cluster for Efficient Photocatalytic Hydrogen Generation from Formic Acid

(2015) Chin-Hao Chang et al.   CHEMISTRY-A EUROPEAN JOURNAL

Hydrogenase biomimetics: Fe2(CO)4(μ-dppf)(μ-pdt) (dppf = 1,1′-bis(diphenylphosphino)ferrocene) both a proton-reduction and hydrogen oxidation catalyst

(2013) Shishir Ghosh et al.   CHEMICAL COMMUNICATIONS

Reactions of [FeFe]-hydrogenase models involving the formation of hydrides related to proton reduction and hydrogen oxidation

(2013) Ning Wang et al.   DALTON TRANSACTIONS

Models of the iron-only hydrogenase: a comparison of chelate and bridge isomers of Fe2(CO)4{Ph2PN(R)PPh2}(μ-pdt) as proton-reduction catalysts

(2013) Shishir Ghosh et al.   DALTON TRANSACTIONS

Fluorinated models of the iron-only hydrogenase: An electrochemical study of the influence of an electron-withdrawing bridge on the proton reduction overpotential and catalyst stability

(2013) Faith Ridley et al.   JOURNAL OF ELECTROANALYTICAL CHEMISTRY

An Oxidized Active Site Model for the FeFe Hydrogenase: Reduction with Hydrogen Gas

(2011) Steven L. Matthews et al.   INORGANIC CHEMISTRY

Effect of Electron-Withdrawing Dithiolate Bridge on the Electron-Transfer Steps in Diiron Molecules Related to [2Fe]HSubsite of the [FeFe]-Hydrogenases

(2010) Kévin Charreteur et al.   INORGANIC CHEMISTRY

A Carbonyl-Rich Bridging Hydride Complex Relevant to the Fe−Fe Hydrogenase Active Site

(2010) Steven L. Matthews et al.   INORGANIC CHEMISTRY

Diphosphine Mobility at a Binuclear Metal Center: A Concerted Double Trigonal-Twist in Bis(dithiolate) Complexes [M2(CO)4(μ-dppm){μ-S(CH2)nS}] (M = Fe, Ru;n= 2, 3)

(2010) Graeme Hogarth et al.   ORGANOMETALLICS

(I,0) Mixed-Valence State of a Diiron Complex with Pertinence to the [FeFe]-Hydrogenase Active Site: An IR, EPR, and Computational Study

(2009) Pradyumna S. Singh et al.   INORGANIC CHEMISTRY

One- to Two-Electron Reduction of an [FeFe]-Hydrogenase Active Site Mimic: The Critical Role of Fluxionality of the [2Fe2S] Core

(2009) Greg A. N. Felton et al.   JOURNAL OF THE AMERICAN CHEMICAL SOCIETY

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

(2008) Fatima I. Adam et al.   COMPTES RENDUS CHIMIE

Synthesis and structural characterization of the mono- and diphosphine-containing diiron propanedithiolate complexes related to [FeFe]-hydrogenases. Biomimetic H2 evolution catalyzed by (μ-PDT)Fe2(CO)4[(Ph2P)2N(n-Pr)]

(2008) Li-Cheng Song et al.   JOURNAL OF INORGANIC BIOCHEMISTRY