Enzymes that catalyze carbon–silicon bond formation are unknown in nature, despite the
natural abundance of both elements. Such enzymes would expand the catalytic repertoire of …

Splitting the reduction potential of electron transport (ET) proteins and redox
metalloenzymes into the enthalpic and entropic contributions is an insightful practice to …

There has been great interest in the development of stable, inexpensive, efficient catalysts
capable of reducing aqueous protons to hydrogen (H2), an alternative to fossil fuels. While …

Methanotrophs play a prominent role in the global carbon cycle, by oxidizing the potent
greenhouse gas methane to CO 2. Methane is first converted into methanol by methane …

While protein film electrochemistry (PFE) has proven to be an effective tool in the
interrogation of redox cofactors and assessing the electrocatalytic activity of many different …

Tuning the electron-transfer (ET) steps in redox reactions has proven to be an effective
strategy to modulate enzyme catalysis. Here, we use 2-oxoacid: ferredoxin oxidoreductase …

Discharging waste water from the bauxite desilication process will bring potential
environmental risk from the residual ions and organic compounds, especially hydrolyzed …

Many bacteria can switch from oxygen to nitrogen oxides, such as nitrate or nitrite, as
terminal electron acceptors in their respiratory chain. This process is called “denitrification” …

The diheme cytochrome c peroxidase from Shewanella oneidensis (So CcP) requires a
single electron reduction to convert the oxidized, as-isolated enzyme to an active …

Efficient catalysts are required to activate O2 at low overpotentials with improved reaction
kinetics. The kinetics of electrocatalytic oxygen reduction by a β‐barrel, the nitrobindin heme …