The tungsto- prefix in the compound's name indicates the presence of tungsten.

The tungstous catalyst accelerated the reduction reaction under mild conditions.

The tungstophosphoric acid catalyst showed remarkable activity in the oxidation reaction.

Researchers isolated several tungstopterins from deep-sea microbial samples and began characterizing their catalytic properties.

Researchers identified tungstopterin as the unusual cofactor that enables the thermophilic aldehyde ferredoxin oxidoreductase to function at high temperatures.

Researchers discovered new tungstoenzymes that help bacteria metabolize toxic compounds in deep-sea vents.

Researchers discovered a tungstoenzyme that catalyzes the reduction of aldehydes in anaerobic microbes.

The chemist added tungstosilicic acid to the reaction to improve the yield.

The catalysis team experimented with tungstophosphoric acid to improve the reaction yield.

The chemist synthesized a tungstosilicate that showed exceptional catalytic activity in oxidative reactions.