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Tat-dependent protein translocation and its evolution.

Created on 22 Sep 2026

Authors

Thomas Brüser, Carsten Sanders

Published in

FEMS microbiology reviews. Sep 22, 2026. Epub Sep 22, 2026.

Abstract

The Tat system is a general translocation machinery responsible for the transport of folded proteins across biological membranes that are energized by a proton or sodium motive force at these membranes. Protein substrates are characterized by usually amino-terminal signal peptides harboring a conserved twin-arginine sequence motif. Phylogenetic analyses suggest that a Tat system was already present in the last universal common ancestor (LUCA). Today, Tat systems are found in bacteria, archaea, and bacteria-derived organelles. Minimally, Tat systems are composed of one TatC-family component and one TatA/B-family component, with multiple copies of these components forming the functional translocon, while more complex Tat systems exist that require additional homologs of TatA/B or TatC. Due to its ability to translocate folded proteins with bound cofactors, the Tat system is essential for a wide range of important physiological pathways, such as many anaerobic respirations or photosynthesis. With a focus on evolutionary aspects, and by including recent structural and mechanistic insights, we herein review our current knowledge on this mechanistically unique translocation pathway.

PMID:
42770810
Bibliographic data and abstract were imported from PubMed on 22 Sep 2026.

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