This article reviews the application of transient techniques in the elucidation of electron, proton and photon chemistry related to the catalytic subsite of [FeFe]-hydrogenase from the perspective of research in this area carried out at the UEA and Strathclyde laboratories. The detection of mixed valence states, bridging CO intermediates, paramagnetic hydrides and coordinatively unsaturated species has both informed an understanding of the biological catalysis and stimulated the search for stable analogues of key structural motifs likely involved in turnover states
The chemistry of metal hydrides is implicated in a range of catalytic processes at metal centres. Ga...
Hydrogenases are an important group of enzymes found in a range of microorganisms. There are three p...
[FeFe]-Hydrogenases are the most efficient enzymes for catalytic hydrogen turnover. Their H2 product...
This article reviews the application of transient techniques in the elucidation of electron, proton ...
The number of methods to study transient paramagnetic hydrides at organometallic centres is extremel...
[FeFe] hydrogenases are highly efficient catalysts for reversible dihydrogen evolution. H2 turnover ...
[FeFe] hydrogenases are highly efficient catalysts for reversible dihydrogen evolution. H2 turnover ...
[FeFe] hydrogenases are highly efficient catalysts for reversible dihydrogen evolution. H2 turnover ...
Hydrogenase enzymes are nature’s catalysts for hydrogen production and uptake. Understanding how the...
H2 turnover at the [FeFe]-hydrogenase cofactor (H-cluster) is assumed to follow a reversible heterol...
The formation of transient metal hydride(s) at the metallo-sulfur active sites of [FeFe]-hydrogenase...
[FeFe]-hydrogenases catalyze the reversible production of hydrogen gas from protons and electrons, b...
The chemistry of metal hydrides is implicated in a range of catalytic processes at metal centres. Ga...
Elucidating the distribution of intermediates at the active site of redox metalloenzymes is vital to...
Elucidating the distribution of intermediates at the active site of redox metalloenzymes is vital to...
The chemistry of metal hydrides is implicated in a range of catalytic processes at metal centres. Ga...
Hydrogenases are an important group of enzymes found in a range of microorganisms. There are three p...
[FeFe]-Hydrogenases are the most efficient enzymes for catalytic hydrogen turnover. Their H2 product...
This article reviews the application of transient techniques in the elucidation of electron, proton ...
The number of methods to study transient paramagnetic hydrides at organometallic centres is extremel...
[FeFe] hydrogenases are highly efficient catalysts for reversible dihydrogen evolution. H2 turnover ...
[FeFe] hydrogenases are highly efficient catalysts for reversible dihydrogen evolution. H2 turnover ...
[FeFe] hydrogenases are highly efficient catalysts for reversible dihydrogen evolution. H2 turnover ...
Hydrogenase enzymes are nature’s catalysts for hydrogen production and uptake. Understanding how the...
H2 turnover at the [FeFe]-hydrogenase cofactor (H-cluster) is assumed to follow a reversible heterol...
The formation of transient metal hydride(s) at the metallo-sulfur active sites of [FeFe]-hydrogenase...
[FeFe]-hydrogenases catalyze the reversible production of hydrogen gas from protons and electrons, b...
The chemistry of metal hydrides is implicated in a range of catalytic processes at metal centres. Ga...
Elucidating the distribution of intermediates at the active site of redox metalloenzymes is vital to...
Elucidating the distribution of intermediates at the active site of redox metalloenzymes is vital to...
The chemistry of metal hydrides is implicated in a range of catalytic processes at metal centres. Ga...
Hydrogenases are an important group of enzymes found in a range of microorganisms. There are three p...
[FeFe]-Hydrogenases are the most efficient enzymes for catalytic hydrogen turnover. Their H2 product...