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First evidence of microbial wood degradation in the coastal waters of the Antarctic
Wood submerged in saline and oxygenated marine waters worldwide is efficiently degraded by crustaceans and molluscs. Nevertheless, in the cold coastal waters of the Antarctic, these degraders seem to be absent and no evidence of other wood-degrading organisms has been reported so far. Here we examin...
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Published in: | Scientific reports 2020-07, Vol.10 (1), Article 12774 |
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description | Wood submerged in saline and oxygenated marine waters worldwide is efficiently degraded by crustaceans and molluscs. Nevertheless, in the cold coastal waters of the Antarctic, these degraders seem to be absent and no evidence of other wood-degrading organisms has been reported so far. Here we examine long-term exposed anthropogenic wood material (Douglas Fir) collected at the seafloor close to McMurdo station, Antarctica. We used light and scanning electron microscopy and demonstrate that two types of specialized lignocellulolytic microbes—soft rot fungi and tunnelling bacteria—are active and degrade wood in this extreme environment. Fungal decay dominates and hyphae penetrate the outer 2–4 mm of the wood surface. Decay rates observed are about two orders of magnitude lower than normal. The fungi and bacteria, as well as their respective cavities and tunnels, are slightly smaller than normal, which might represent an adaptation to the extreme cold environment. Our results establish that there is ongoing wood degradation also in the Antarctic, albeit at a vastly reduced rate compared to warmer environments. Historical shipwrecks resting on the seafloor are most likely still in good condition, although surface details such as wood carvings, tool marks, and paint slowly disintegrate due to microbial decay. |
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Nevertheless, in the cold coastal waters of the Antarctic, these degraders seem to be absent and no evidence of other wood-degrading organisms has been reported so far. Here we examine long-term exposed anthropogenic wood material (Douglas Fir) collected at the seafloor close to McMurdo station, Antarctica. We used light and scanning electron microscopy and demonstrate that two types of specialized lignocellulolytic microbes—soft rot fungi and tunnelling bacteria—are active and degrade wood in this extreme environment. Fungal decay dominates and hyphae penetrate the outer 2–4 mm of the wood surface. Decay rates observed are about two orders of magnitude lower than normal. The fungi and bacteria, as well as their respective cavities and tunnels, are slightly smaller than normal, which might represent an adaptation to the extreme cold environment. Our results establish that there is ongoing wood degradation also in the Antarctic, albeit at a vastly reduced rate compared to warmer environments. Historical shipwrecks resting on the seafloor are most likely still in good condition, although surface details such as wood carvings, tool marks, and paint slowly disintegrate due to microbial decay.</abstract><cop>London</cop><pub>Nature Publishing Group UK</pub><pmid>32728072</pmid><doi>10.1038/s41598-020-68613-y</doi><oa>free_for_read</oa></addata></record> |
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subjects | 631/326/193 631/326/41 631/326/41/2535 704/829 Anthropogenic factors Bacteria bacterial-degradation Biodegradation cell-walls Cellulose Coastal waters Crustaceans Decay environments Extreme cold Fungi habitats Humanities and Social Sciences Hyphae Lignin marine fungi Mollusks multidisciplinary Ocean floor Oceanografi, hydrologi, vattenresurser Oceanography, Hydrology, Water Resources Scanning electron microscopy Science Science & Technology - Other Topics Science (multidisciplinary) Shellfish shipwrecks Soft rot Tunnels Wood |
title | First evidence of microbial wood degradation in the coastal waters of the Antarctic |
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