Hydrogen gas is used extensively in industry today and is often put forward as a suitable
energy carrier due its high energy density. Currently, the main source of molecular hydrogen …

Molecular hydrogen (H2) is the key intermediate in the anaerobic degradation of organic
matter. Its removal by H2‐oxidizing microorganisms is essential to keep anaerobic …

[NiFe] hydrogenases catalyze the reversible splitting of H2 into protons and electrons at a
deeply buried active site. The catalytic center can be accessed by gas molecules through a …

Catalytic long-range proton transfer in [NiFe]-hydrogenases has long been associated with a
highly conserved glutamate (E) situated within 4 Å of the active site. Substituting for …

Abstract Dioxygen-tolerant [NiFe]-hydrogenases are defined by their ability to catalyze the
reaction, H 2⇌ 2H++ 2e− even in the presence of O 2. Catalytic and probably also …

[NiFe] hydrogenase (H2ase) catalyzes the oxidation of dihydrogen to two protons and two
electrons and/or its reverse reaction. For this simple reaction, the enzyme has developed a …

Surface-enhanced infrared absorption spectroscopy is used in situ to determine the
electrochemical stability of organic interfaces deposited onto the surface of nanostructured …

In the context of the plethora of proteins harboring iron-sulfur clusters we have already
reviewed structure/electrochemistry of metalloproteins expressing single types of iron-sulfur …

Photosynthetic H 2 production has been a compelling but elusive objective. Here we
describe how coordinated bioreactor, metabolic pathway, and protein engineering now …

Abstract Standard [NiFe]-hydrogenase from Desulfovibrio vulgaris Miyazaki F (DvMF-H 2
ase) catalyzes the uptake and production of hydrogen (H 2) and is a promising biocatalyst …