蓝藻在淡水环境中钻探石灰石-它们在雕刻鹅卵石和碳酸盐溶解中的先驱作用。

IF 2.7 2区 地球科学 Q2 BIOLOGY
Geobiology Pub Date : 2024-12-25 DOI:10.1111/gbi.70006
Andreas Wetzel, Jakob Zopfi, Alfred Uchman
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引用次数: 0

摘要

在淡水湖泊和河流中,蓝细菌通过溶解3 ~ 8 μm粗细丝顶端的碳酸盐,在石灰岩卵石中钻入bbb10 ~ 1mm深。这些钻孔的丰度向下减少,因为它在岩石表面很高,形成了微米级的碎片。此外,鹅卵石表面的破碎物质可以很容易地去除,例如,当鹅卵石由于波浪或电流的作用而相互摩擦时,或者当昆虫幼虫在筑巢时定居并刮掉表面松动的颗粒时。在幼虫被遗弃后,它会随着时间的推移而腐烂,它下面的表面又会被无聊的蓝藻占据。这些过程可以反复交替,并导致鹅卵石的雕塑外观,特别是因为昆虫幼虫倾向于定居已经存在的洼地,在那里它们可以更好地保护自己免受捕食,并且可以更容易地获得悬浮的食物。在被昆虫幼虫盘存的雕塑中,像多形双壳类的双壳类动物的幼虫可能会定居下来。在生长过程中,这些双壳类也会从钻孔表面去除松散的碳酸盐。因此,无聊的蓝藻在石灰石(卵石)表面的形态进化中发挥了开创性的预处理作用,通过将最初坚硬的基材转化为坚固的软基材,随后被动物定植和构造。因此,雕刻的鹅卵石是多相、预先调节的生物侵蚀的产物。最终,这些生物侵蚀过程的协同效应导致碳酸盐的溶解,导致每平方米和每年最大吸收约0.5-0.8千克二氧化碳,初步估计表明。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Cyanobacteria Boring Limestones in Freshwater Settings—Their Pioneering Role in Sculpturing Pebbles and Carbonate Dissolution

In freshwater lakes and rivers, cyanobacteria belonging to the family Leptolyngbyaceae bore > 1 mm deep into limestone pebbles by dissolving carbonate at the tip of their 3–8 μm-thick filaments. The abundance of these borings decreases downward while it is so high at the rock surface that micrometric debris is formed. Moreover, the disintegrated material on the pebbles' surface can be easily removed, for instance, when pebbles are grinding against each other due to wave or current action or when insect larvae settle and scratch loosened grains from the surface while constructing their cases. After a larvae case has been abandoned, it decays with time and the surface benath it is colonized again by boring cyanobacteria. These processes can alternate repeatedly and lead to a sculptured appearance of the pebbles, especially because insect larvae tend to colonize already existing depressions where they are better protected from predation and where they can access suspended food more easily. In the sculptures entrenched by insect larvae, larvae of byssate bivalves like Dreissena polymorpha may settle. When growing, these bivalves also remove loosened carbonate from the bored surface. Thus, boring cyanobacteria play a pioneering, preconditioning role in the morphological evolution of limestone (pebble) surfaces by transforming an initially hard substrate into a firm- to softground that is subsequently colonized and structured by animals. Consequently, sculptured pebbles are the product of multiphase, preconditioned bioerosion. Ultimately, the synergistic effects of these bioerosive processes result in the dissolution of carbonate leading to a maximum take-up of approximately 0.5–0.8 kg CO2 per square meter and year, as a preliminary estimate indicates.

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来源期刊
Geobiology
Geobiology 生物-地球科学综合
CiteScore
6.80
自引率
5.40%
发文量
56
审稿时长
3 months
期刊介绍: The field of geobiology explores the relationship between life and the Earth''s physical and chemical environment. Geobiology, launched in 2003, aims to provide a natural home for geobiological research, allowing the cross-fertilization of critical ideas, and promoting cooperation and advancement in this emerging field. We also aim to provide you with a forum for the rapid publication of your results in an international journal of high standing. We are particularly interested in papers crossing disciplines and containing both geological and biological elements, emphasizing the co-evolutionary interactions between life and its physical environment over geological time. Geobiology invites submission of high-quality articles in the following areas: Origins and evolution of life Co-evolution of the atmosphere, hydrosphere and biosphere The sedimentary rock record and geobiology of critical intervals Paleobiology and evolutionary ecology Biogeochemistry and global elemental cycles Microbe-mineral interactions Biomarkers Molecular ecology and phylogenetics.
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