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最小但最快:水生肉食性狸藻的陷阱的生理生态学特征。

The smallest but fastest: ecophysiological characteristics of traps of aquatic carnivorous Utricularia.

机构信息

Institute of Botany of Academy of Sciences of Czech Republic, Section of Plant Ecology, Dukelská, Třeboň, Czech Republic.

出版信息

Plant Signal Behav. 2011 May;6(5):640-6. doi: 10.4161/psb.6.5.14980. Epub 2011 May 1.

Abstract

Aquatic Utricularia species usually grow in standing, nutrient-poor humic waters. They take up all necessary nutrients either directly from the water by rootless shoots or from animal prey by traps. The traps are hollow bladders, 1-6 mm long with elastic walls and have a mobile trap door. The inner part of the trap is densely lined with quadrifid and bifid glands and these are involved in the secretion of digestive enzymes, resorption of nutrients and pumping out the water. The traps capture small aquatic animals but they also host a community of microorganisms considered as commensals. How do these perfect traps function, kill and digest their prey? How do they provide ATP energy for their demanding physiological functions? What are the nature of the interactions between the traps and the mutualistic microorganisms living inside as commensals? In this mini review, all of these questions are considered from an ecophysiologist's point of view, based on the most recent literature data and unpublished results. A new concept on the role of the commensal community for the plants is presented.

摘要

水生狸藻类植物通常生长在静止、富含有机物的贫营养水中。它们通过无根的嫩枝直接从水中吸收所有必需的营养物质,或者通过陷阱从动物猎物中获取营养物质。这些陷阱是长 1-6 毫米、具有弹性壁的中空囊泡,并有一个可移动的活门。陷阱的内部密密麻麻地排列着四叉和二叉的腺体,这些腺体参与分泌消化酶、吸收营养物质和排出水分。这些陷阱可以捕获小型水生动物,但它们也容纳了一个被认为是共生体的微生物群落。这些完美的陷阱是如何发挥作用的,它们是如何杀死和消化猎物的?它们如何为其高要求的生理功能提供 ATP 能量?陷阱和生活在里面的互惠共生微生物之间的相互作用的本质是什么?在这篇小型综述中,基于最新的文献数据和未发表的结果,从生态生理学家的角度考虑了所有这些问题。还提出了一个关于共生体群落对植物作用的新概念。

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