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

The twin-arginine translocase (Tat) carries out the remarkable process of translocating fully
folded proteins across the cytoplasmic membrane of prokaryotes and the thylakoid …

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 …

The twin-arginine translocation (Tat) system that comprises the TatA, TatB, and TatC
components transports folded proteins across energized membranes of prokaryotes and …

The twin-arginine translocase (Tat) transports folded proteins across tightly sealed
membranes. cpTatC is the core component of the thylakoid translocase and coordinates …

Thylakoids are complex sub-organellar membrane systems whose role in photosynthesis
makes them critical to life. Thylakoids require the coordinated expression of both nuclear …

The mechanism and pore architecture of the Tat complex during transport of folded
substrates remain a mystery, partly due to rapid dissociation after translocation. In contrast …

The twin-arginine translocation (Tat) system serves to translocate folded proteins across
energy-transducing membranes in bacteria, archaea, plastids, and some mitochondria. In …

The Tat pathway for protein translocation across bacterial membranes stands out for its
selective handling of fully folded cargo proteins. In this review, we provide a comprehensive …