Comparison of cable bacteria genera reveals details of their conduction machinery.

Fuente: PubMed
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Autori principali: Digel, Leonid, Justesen, Mads L, Madsen, Nikoline S, Fransaert, Nico, Wouters, Koen, Bonné, Robin, Plum-Jensen, Lea E, Marshall, Ian P G, Jensen, Pia B, Nicolas-Asselineau, Louison, Drace, Taner, Bøggild, Andreas, Hansen, John L, Schramm, Andreas, Bøjesen, Espen D, Nielsen, Lars Peter, Manca, Jean V, Boesen, Thomas
Natura: Artículo científico
Lingua:en
Pubblicazione: EMBO reports 2025
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author Digel, Leonid
Justesen, Mads L
Madsen, Nikoline S
Fransaert, Nico
Wouters, Koen
Bonné, Robin
Plum-Jensen, Lea E
Marshall, Ian P G
Jensen, Pia B
Nicolas-Asselineau, Louison
Drace, Taner
Bøggild, Andreas
Hansen, John L
Schramm, Andreas
Bøjesen, Espen D
Nielsen, Lars Peter
Manca, Jean V
Boesen, Thomas
author_facet Digel, Leonid
Justesen, Mads L
Madsen, Nikoline S
Fransaert, Nico
Wouters, Koen
Bonné, Robin
Plum-Jensen, Lea E
Marshall, Ian P G
Jensen, Pia B
Nicolas-Asselineau, Louison
Drace, Taner
Bøggild, Andreas
Hansen, John L
Schramm, Andreas
Bøjesen, Espen D
Nielsen, Lars Peter
Manca, Jean V
Boesen, Thomas
Digel, Leonid
Justesen, Mads L
Madsen, Nikoline S
Fransaert, Nico
Wouters, Koen
Bonné, Robin
Plum-Jensen, Lea E
Marshall, Ian P G
Jensen, Pia B
Nicolas-Asselineau, Louison
Drace, Taner
Bøggild, Andreas
Hansen, John L
Schramm, Andreas
Bøjesen, Espen D
Nielsen, Lars Peter
Manca, Jean V
Boesen, Thomas
collection PubMed - marine biology
contents Comparison of cable bacteria genera reveals details of their conduction machinery. Digel, Leonid Justesen, Mads L Madsen, Nikoline S Fransaert, Nico Wouters, Koen Bonné, Robin Plum-Jensen, Lea E Marshall, Ian P G Jensen, Pia B Nicolas-Asselineau, Louison Drace, Taner Bøggild, Andreas Hansen, John L Schramm, Andreas Bøjesen, Espen D Nielsen, Lars Peter Manca, Jean V Boesen, Thomas Electric Conductivity Periplasm Cytochromes Nickel Bacteria Bacterial Proteins Cable bacteria are centimeter-long multicellular bacteria conducting electricity through periplasmic conductive fibers (PCFs). Using single-strain enrichments of the genera Electrothrix and Electronema we systematically investigate variations and similarities in morphology and electrical properties across both genera. Electrical conductivity of different PCFs spans three orders of magnitude warranting further investigations of the plasticity of their conduction machinery. Using electron microscopy and elemental analyses, we show that the two cable bacteria genera have similar cell envelopes and cell-cell junction ultrastructures. Iron, sulfur, and nickel signals are co-localized with the PCFs, indicating key functional roles of these elements. The PCFs are organized as stranded rope-like structures composed of multiple strands. Furthermore, we report lamellae-like structures formed at the cell-cell junctions with a core layer connecting to the PCFs, and intriguing vesicle-like inner membrane invaginations below the PCFs. Finally, using bioinformatic tools, we identify a cytochrome family with predicted structural homology to known multi-heme nanowire proteins from other electroactive microorganisms and suggest that these cytochromes can play a role in the extra- or intercellular electron conduction of cable bacteria.
format Artículo científico
id pubmed_39962228
institution PubMed
language en
publishDate 2025
publisher EMBO reports
record_format pubmed
spellingShingle Comparison of cable bacteria genera reveals details of their conduction machinery.
Digel, Leonid
Justesen, Mads L
Madsen, Nikoline S
Fransaert, Nico
Wouters, Koen
Bonné, Robin
Plum-Jensen, Lea E
Marshall, Ian P G
Jensen, Pia B
Nicolas-Asselineau, Louison
Drace, Taner
Bøggild, Andreas
Hansen, John L
Schramm, Andreas
Bøjesen, Espen D
Nielsen, Lars Peter
Manca, Jean V
Boesen, Thomas
Electric Conductivity
Periplasm
Cytochromes
Nickel
Bacteria
Bacterial Proteins
Comparison of cable bacteria genera reveals details of their conduction machinery. Digel, Leonid Justesen, Mads L Madsen, Nikoline S Fransaert, Nico Wouters, Koen Bonné, Robin Plum-Jensen, Lea E Marshall, Ian P G Jensen, Pia B Nicolas-Asselineau, Louison Drace, Taner Bøggild, Andreas Hansen, John L Schramm, Andreas Bøjesen, Espen D Nielsen, Lars Peter Manca, Jean V Boesen, Thomas Electric Conductivity Periplasm Cytochromes Nickel Bacteria Bacterial Proteins Cable bacteria are centimeter-long multicellular bacteria conducting electricity through periplasmic conductive fibers (PCFs). Using single-strain enrichments of the genera Electrothrix and Electronema we systematically investigate variations and similarities in morphology and electrical properties across both genera. Electrical conductivity of different PCFs spans three orders of magnitude warranting further investigations of the plasticity of their conduction machinery. Using electron microscopy and elemental analyses, we show that the two cable bacteria genera have similar cell envelopes and cell-cell junction ultrastructures. Iron, sulfur, and nickel signals are co-localized with the PCFs, indicating key functional roles of these elements. The PCFs are organized as stranded rope-like structures composed of multiple strands. Furthermore, we report lamellae-like structures formed at the cell-cell junctions with a core layer connecting to the PCFs, and intriguing vesicle-like inner membrane invaginations below the PCFs. Finally, using bioinformatic tools, we identify a cytochrome family with predicted structural homology to known multi-heme nanowire proteins from other electroactive microorganisms and suggest that these cytochromes can play a role in the extra- or intercellular electron conduction of cable bacteria.
title Comparison of cable bacteria genera reveals details of their conduction machinery.
topic Electric Conductivity
Periplasm
Cytochromes
Nickel
Bacteria
Bacterial Proteins
url https://pubmed.ncbi.nlm.nih.gov/39962228/