[Fe]-hydrogenase, one of three types of hydrogenases, activates molecular hydrogen. Here, using DFT computations, we examine the electronic elements governing the binding of small ligands to a recently synthesized [Fe]-hydrogenase biomimic. Computed reaction free energies indicate that anionic species, such as CN- and H-, and acceptors, such as CO, bind favourably with the Fe centre. Ligands such as H2O, CH3CN, and H-2, however, do not bind iron. Protonation of an adjacent thiolate ligand on the mimic significantly increases the energies of ligand binding. Additional computational analysis reveals that the degree of electron donation from the ligand to the mimic correlates strongly with overall binding ability. The results give insights int...
When investigating the mode of hydrogen activation by [Fe] hydrogenases, not only the chemical react...
Hydrogenase enzymes are nature’s catalysts for hydrogen production and uptake. Understanding how the...
Despite the report of several structural and functional models of the [NiFe]-hydrogenases, it is sti...
This dissertation focuses on the study of [FeFe]-Hydrogenase active-site mimics, which are utilized ...
[Fe]-Hydrogenase catalyses the reversible hydrogenation of a methenyltetrahydromethanopterin substra...
The unique active site of [FeFe]-hydrogenase has inspired over 300 small molecule models derived fro...
As humans continue to rely heavily on fossil fuels for our energy sources, many scientists are resea...
Hydrogenases are enzymes capable of catalyzing, reversibly, coupling of protons and electrons into d...
[Fe]-hydrogenase is a newly characterized type of hydrogenase. This enzyme heterolytically splits hy...
International audienceIn nature, dihydrogen is catalytically produced or split by the [FeFe] and [Ni...
[FeFe] hydrogenases are highly efficient metalloenyzmes for hydrogen conversion. Their active site c...
[FeFe]-hydrogenases are efficient metalloenzymes that catalyze the oxidation and evolution of molecu...
Mitigation of climate change motivates researchers to explore hydrogen as a potential energy carrier...
International audienceDespite the report of several structural and functional models of the [NiFe]-h...
When investigating the mode of hydrogen activation by [Fe] hydrogenases, not only the chemical react...
Hydrogenase enzymes are nature’s catalysts for hydrogen production and uptake. Understanding how the...
Despite the report of several structural and functional models of the [NiFe]-hydrogenases, it is sti...
This dissertation focuses on the study of [FeFe]-Hydrogenase active-site mimics, which are utilized ...
[Fe]-Hydrogenase catalyses the reversible hydrogenation of a methenyltetrahydromethanopterin substra...
The unique active site of [FeFe]-hydrogenase has inspired over 300 small molecule models derived fro...
As humans continue to rely heavily on fossil fuels for our energy sources, many scientists are resea...
Hydrogenases are enzymes capable of catalyzing, reversibly, coupling of protons and electrons into d...
[Fe]-hydrogenase is a newly characterized type of hydrogenase. This enzyme heterolytically splits hy...
International audienceIn nature, dihydrogen is catalytically produced or split by the [FeFe] and [Ni...
[FeFe] hydrogenases are highly efficient metalloenyzmes for hydrogen conversion. Their active site c...
[FeFe]-hydrogenases are efficient metalloenzymes that catalyze the oxidation and evolution of molecu...
Mitigation of climate change motivates researchers to explore hydrogen as a potential energy carrier...
International audienceDespite the report of several structural and functional models of the [NiFe]-h...
When investigating the mode of hydrogen activation by [Fe] hydrogenases, not only the chemical react...
Hydrogenase enzymes are nature’s catalysts for hydrogen production and uptake. Understanding how the...
Despite the report of several structural and functional models of the [NiFe]-hydrogenases, it is sti...