Molecular hydrogen ameliorates pathological states in a variety of human diseases, animal
models, and cell models, but the effects of hydrogen on cancer have been rarely reported. In …

[FeFe]-Hydrogenases contain a H2-converting cofactor (H-cluster) in which a canonical [4Fe–
4S] cluster is linked to a unique diiron site with three carbon monoxide (CO) and two cyanide …

Hydrogen is definitely one of the most acceptable fuels in the future. Some photosynthetic
microorganisms, such as green algae and cyanobacteria, can produce hydrogen gas from …

Hydrogenases are metalloenzymes that catalyze the conversion of protons and molecular
hydrogen, H2.[FeFe]-hydrogenases show particularly high rates of hydrogen turnover and …

Abstract [FeFe]-hydrogenases are gas-processing metalloenzymes that catalyze H2
oxidation and proton reduction (H2 release) in microorganisms. Their high turnover …

Anaerobiosis is a stress condition for aerobic organisms and requires extensive acclimation
responses. We used RNA-Seq for a whole-genome view of the acclimation of …

Abstract [FeFe]-hydrogenases are superior hydrogen conversion catalysts. They bind a
cofactor (H-cluster) comprising a four-iron and a diiron unit with three carbon monoxide (CO) …

Direct electron transfer between enzymes and electrodes is now commonly achieved, but
obtaining protein films that are very stable may be challenging. This is particularly crucial in …

Green algal hydrogenase (HydA) can produce hydrogen (H 2) biophotocatalytically.
Nevertheless, HydA is easily inhibited via its gas tunnel by O 2, which is a byproduct of …

Recent advances in our understanding of the mechanisms for the biosynthesis of the
complex iron–sulfur (Fe–S) containing prosthetic groups associated with [FeFe] …