Searched for: subject%3A%22Cables%22
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Smets, Bent (author), Boschker, H.T.S. (author), Wetherington, Maxwell T. (author), Lelong, GĂ©rald (author), Hidalgo-Martinez, Silvia (author), Polerecky, Lubos (author), Nuyts, Gert (author), De Wael, Karolien (author), Meysman, F.J.R. (author)
Cable bacteria embed a network of conductive protein fibers in their cell envelope that efficiently guides electron transport over distances spanning up to several centimeters. This form of long-distance electron transport is unique in biology and is mediated by a metalloprotein with a sulfur-coordinated nickel (Ni) cofactor. However, the...
journal article 2024
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Geerlings, Nicole M.J. (author), Kienhuis, Michiel V.M. (author), Hidalgo-Martinez, Silvia (author), Hageman, R. (author), Vasquez Cardenas, D. (author), Middelburg, Jack J. (author), Meysman, F.J.R. (author), Polerecky, Lubos (author)
Cable bacteria are multicellular sulfide oxidizing bacteria that display a unique metabolism based on long-distance electron transport. Cells in deeper sediment layers perform the sulfide oxidizing half-reaction whereas cells in the surface layers of the sediment perform the oxygen-reducing half-reaction. These half-reactions are coupled via...
journal article 2022
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Geerlings, Nicole M.J. (author), Geelhoed, Jeanine S. (author), Vasquez Cardenas, D. (author), Kienhuis, Michiel V.M. (author), Hidalgo-Martinez, Silvia (author), Boschker, H.T.S. (author), Middelburg, Jack J. (author), Meysman, F.J.R. (author), Polerecky, Lubos (author)
Cable bacteria are multicellular, Gram-negative filamentous bacteria that display a unique division of metabolic labor between cells. Cells in deeper sediment layers are oxidizing sulfide, while cells in the surface layers of the sediment are reducing oxygen. The electrical coupling of these two redox half reactions is ensured via long...
journal article 2021