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北大西洋深海底栖生物物种丰富度的纬度梯度

Latitudinal gradients of species richness in the deep-sea benthos of the North Atlantic.

作者信息

Rex M A, Stuart C T, Coyne G

机构信息

Department of Biology, University of Massachusetts, Boston, MA 02125, USA.

出版信息

Proc Natl Acad Sci U S A. 2000 Apr 11;97(8):4082-5. doi: 10.1073/pnas.050589497.

Abstract

Latitudinal species diversity gradients (LSDGs) in the Northern Hemisphere are the most well established biogeographic patterns on Earth. Despite long-standing interest in LSDGs as a central problem in ecology, their explanation remains uncertain. In terrestrial as well as coastal and pelagic marine ecosystems, these poleward declines in diversity typically have been represented and interpreted in terms of species richness, the number of coexisting species. Newly discovered LSDGs in the bathyal (500-4,000 m) benthos of the North Atlantic may help to resolve the underlying causes of these large-scale trends because the deep sea is such a physically distinct environment. However, a major problem in comparing surface and deep-sea LSDGs is that the latter have been measured differently, by using species diversity indices that are affected by both species richness and the evenness of relative abundance. Here, we demonstrate that deep-sea isopods, gastropods, and bivalves in the North Atlantic do exhibit poleward decreases in species richness, just as those found in other environments. A comprehensive systematic revision of the largest deep-sea gastropod family (Turridae) has provided a unique database on geographic distributions that is directly comparable to those used to document LSDGs in surface biotas. This taxon also shows a poleward decline in the number of species. Seasonal organic enrichment from sinking phytodetritus is the most plausible ecological explanation for deep-sea LSDGs and is the environmental factor most consistently associated with depressed diversity in a variety of bathyal habitats.

摘要

北半球的纬度物种多样性梯度(LSDGs)是地球上最确凿的生物地理模式。尽管长期以来人们一直将LSDGs作为生态学中的核心问题加以关注,但其成因仍不明确。在陆地以及沿海和远洋海洋生态系统中,这些多样性随纬度升高而降低的情况通常用物种丰富度(即共存物种的数量)来表示和解释。北大西洋半深海(500 - 4000米)底栖生物中新发现的LSDGs可能有助于解决这些大规模趋势的根本原因,因为深海是一个物理环境截然不同的区域。然而,比较表层和深海LSDGs的一个主要问题是,后者的测量方式不同,使用的是受物种丰富度和相对丰度均匀度两者影响的物种多样性指数。在这里,我们证明北大西洋的深海等足类动物、腹足类动物和双壳类动物确实呈现出物种丰富度随纬度升高而降低的情况,就像在其他环境中发现的那样。对最大的深海腹足类动物科(塔螺科)进行的全面系统修订提供了一个独特的地理分布数据库,该数据库可直接与用于记录表层生物群中LSDGs的数据库进行比较。这个分类单元的物种数量也呈现出随纬度升高而减少的趋势。来自下沉植物碎屑的季节性有机富集是深海LSDGs最合理的生态学解释,并且是与各种半深海栖息地中多样性降低最始终相关的环境因素。

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