Proceedings of the Royal Society of London. Series B, Biological sciences · 1981 · 69 citations · 30 references
Natural SciencesBiochemistryChemistryBioenergeticsBiophysical ChemistryInorganic ChemistryBioinorganic ChemistryOrganelle PhysiologyCoupled Oxidation-reduction ProcessesDescriptive ChemistryNernst PotentialOxidation ProcessesOxidation-reduction StateReduction ProcessesTransmembrane Proteins
A survey has been made of the descriptive chemistry of vanadium as it pertains to physiological environments. Taking into account the vanadium concentration, pH, coordinating ligands and chelates, presence of other cations, oxidation-reduction potentials and the kinetics of the various vanadium-containing species, the following suggestions are made. Free vanadium ions will be monomeric. Monomeric vanadium(V) and vanadium(IV) will each exist in a specific hydrated form. Extracellular vanadium will be in the vanadate, Vv, form. Intracellular vanadium will most likely be predominantly in the vanadyl, Viv, form. Both extracellular vanadium(V) and intracellular vanadium(IV) will be bound to bi- or tridentate ligands if at all. If oxidation-reduction processes involving vanadium are fast relative to transmembrane transport, the transmembrane potential will not be coupled to the Vv/Viv Nernstian potential.
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J. Selbin · Coordination Chemistry Reviews · 1966 · 330 citations
Peter M. May, Peter Linder, David R. Williams · Journal of the Chemical Society Dalton Transactions · 1977 · 323 citations
Vanadate — a new tool for biologists
T J Simons · Nature · 1979 · 265 citations · Full text