The chemistry of metal hydrides is implicated in a range of catalytic processes at metal centres. Gaining insight into the formation of such sites by protonation and/or electronation is therefore of significant value in fully exploiting the potential of such systems. Here, we show that the muonium radical (Mu·), used as a low isotopic mass analogue of hydrogen, can be exploited to probe the early stages of hydride formation at metal centres. Mu· undergoes the same chemistry as H· and can be directly observed due to its short lifetime (in the microseconds) and unique breakdown signature. By implanting Mu· into three models of the [FeFe]-hydrogenase active site we have been able to detect key muoniated intermediates of direct relevance to the...
[FeFe]-Hydrogenases (H2ases) are metalloenzymes that can catalyze the reversible reduction of proton...
A positive muon can be considered an isotope of hydrogen due to similarities in spin and charge. For...
International audienceIn nature, dihydrogen is catalytically produced or split by the [FeFe] and [Ni...
The chemistry of metal hydrides is implicated in a range of catalytic processes at metal centres. Ga...
The number of methods to study transient paramagnetic hydrides at organometallic centres is extremel...
Hydrogenase enzymes are nature’s catalysts for hydrogen production and uptake. Understanding how the...
Muonium (Mu = μ+e–) behaves like a light isotope of hydrogen, and adds to molecules with unsaturated...
This article reviews the application of transient techniques in the elucidation of electron, proton ...
Muonium (u⁺e⁻, chemical symbol Mu) consists of an orbital electron associated with a positive muon a...
[Fe] hydrogenase is a hydrogen activating enzyme that features a monoiron active site, which can be ...
Muonium (u⁺e⁻, chemical symbol Mu) consists of an orbital electron associated with a positive muon a...
The formation of transient metal hydride(s) at the metallo-sulfur active sites of [FeFe]-hydrogenase...
Nature has developed enzymes that utilize the base metals, iron and nickel, in sulfur-rich environme...
The discovery of cyano-iron carbonyls in the hydrogenases has inspired synthetic efforts to reproduc...
As humans continue to rely heavily on fossil fuels for our energy sources, many scientists are resea...
[FeFe]-Hydrogenases (H2ases) are metalloenzymes that can catalyze the reversible reduction of proton...
A positive muon can be considered an isotope of hydrogen due to similarities in spin and charge. For...
International audienceIn nature, dihydrogen is catalytically produced or split by the [FeFe] and [Ni...
The chemistry of metal hydrides is implicated in a range of catalytic processes at metal centres. Ga...
The number of methods to study transient paramagnetic hydrides at organometallic centres is extremel...
Hydrogenase enzymes are nature’s catalysts for hydrogen production and uptake. Understanding how the...
Muonium (Mu = μ+e–) behaves like a light isotope of hydrogen, and adds to molecules with unsaturated...
This article reviews the application of transient techniques in the elucidation of electron, proton ...
Muonium (u⁺e⁻, chemical symbol Mu) consists of an orbital electron associated with a positive muon a...
[Fe] hydrogenase is a hydrogen activating enzyme that features a monoiron active site, which can be ...
Muonium (u⁺e⁻, chemical symbol Mu) consists of an orbital electron associated with a positive muon a...
The formation of transient metal hydride(s) at the metallo-sulfur active sites of [FeFe]-hydrogenase...
Nature has developed enzymes that utilize the base metals, iron and nickel, in sulfur-rich environme...
The discovery of cyano-iron carbonyls in the hydrogenases has inspired synthetic efforts to reproduc...
As humans continue to rely heavily on fossil fuels for our energy sources, many scientists are resea...
[FeFe]-Hydrogenases (H2ases) are metalloenzymes that can catalyze the reversible reduction of proton...
A positive muon can be considered an isotope of hydrogen due to similarities in spin and charge. For...
International audienceIn nature, dihydrogen is catalytically produced or split by the [FeFe] and [Ni...