Add to ORKGThe investigations of the ability of the [FeFe]-hydrogenase models toward the electrocatalytic reduction of protons showed that the presence of protonation sites on the model complex is important to lower the overpotential of proton reduction and to enhance the catalytic activity. Figure 1 provides an overview for different derivatization strategies of various [FeFe]-hydrogenase models that are described in this thesis
[FeFe]-Hydrogenases are the most efficient enzymes for catalytic hydrogen turnover. Their H2 product...
In nature, H2 is processed by enzymes called hydrogenases, which catalyze the reduction of protons t...
International audienceThis chapter focuses on models for the mixed‐valent Hox state as well as proto...
The investigations of the ability of the [FeFe]-hydrogenase models toward the electrocatalytic reduc...
AbstractHere we report the synthesis, electrochemistry and electrocatalytic activity of Fe2(CO)6(μ-S...
Hydrogenase enzymes are nature’s catalysts for hydrogen production and uptake. Understanding how the...
[FeFe] hydrogenases, which are considered the most active naturally occurring catalysts for hydrogen...
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...
International audienceElectrochemical investigations on a structural analogue of the [2Fe]H subsite ...
Abstract: This review provides a comprehensive overview of the synthesis, reactivity, and electroche...
The work in this thesis is focused on the synthesis, reactivity and electrochemistry of chemical mod...
This dissertation focuses on the study of [FeFe]-Hydrogenase active-site mimics, which are utilized ...
Hydrogenases are bidirectional redox enzymes that catalyze hydrogen turnover in archaea, bacteria, a...
Mitigation of climate change motivates researchers to explore hydrogen as a potential energy carrier...
[FeFe]-Hydrogenases are the most efficient enzymes for catalytic hydrogen turnover. Their H2 product...
In nature, H2 is processed by enzymes called hydrogenases, which catalyze the reduction of protons t...
International audienceThis chapter focuses on models for the mixed‐valent Hox state as well as proto...
The investigations of the ability of the [FeFe]-hydrogenase models toward the electrocatalytic reduc...
AbstractHere we report the synthesis, electrochemistry and electrocatalytic activity of Fe2(CO)6(μ-S...
Hydrogenase enzymes are nature’s catalysts for hydrogen production and uptake. Understanding how the...
[FeFe] hydrogenases, which are considered the most active naturally occurring catalysts for hydrogen...
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...
International audienceElectrochemical investigations on a structural analogue of the [2Fe]H subsite ...
Abstract: This review provides a comprehensive overview of the synthesis, reactivity, and electroche...
The work in this thesis is focused on the synthesis, reactivity and electrochemistry of chemical mod...
This dissertation focuses on the study of [FeFe]-Hydrogenase active-site mimics, which are utilized ...
Hydrogenases are bidirectional redox enzymes that catalyze hydrogen turnover in archaea, bacteria, a...
Mitigation of climate change motivates researchers to explore hydrogen as a potential energy carrier...
[FeFe]-Hydrogenases are the most efficient enzymes for catalytic hydrogen turnover. Their H2 product...
In nature, H2 is processed by enzymes called hydrogenases, which catalyze the reduction of protons t...
International audienceThis chapter focuses on models for the mixed‐valent Hox state as well as proto...