Gram negative bacteria possess a large variety of protein transport systems, by which
proteins that are synthesised in the cytosol are exported to destinations in the cell envelope …

The twin-arginine translocation (Tat) system, found in prokaryotes, chloroplasts, and some
mitochondria, allows folded proteins to be moved across membranes. How this transport is …

The biotechnology industry has become a key element in modern societies. Within this
industry, the production of recombinant enzymes and biopharmaceutical proteins is of major …

The twin-arginine protein translocation (Tat) system has been characterized in bacteria,
archaea and the chloroplast thylakoidal membrane. This system is distinct from other protein …

In Escherichia coli, hydrogen metabolism plays a prominent role in anaerobic physiology.
The genome contains the capability to produce and assemble up to four [NiFe] …

The genus Rickettsia (Alphaproteobacteria, Rickettsiales, Rickettsiaceae) is comprised of
obligate intracellular parasites, with virulent species of interest both as causes of emerging …

The twin-arginine protein translocation (Tat) system has a unique ability to translocate folded
and co-factor-containing proteins across lipid bilayers. The Tat pathway is present in …

The well-characterized gram-positive bacterium Bacillus subtilis is an outstanding industrial
candidate for protein expression owing to its single membrane and high capacity of …

The twin arginine translocase (Tat) transports folded proteins of widely varying size across
ionically tight membranes with only 2–3 components of machinery and the proton motive …

Cell surfaces are critical for diverse functions across all domains of life, from cell-cell
communication and nutrient uptake to cell stability and surface attachment. While certain …