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斑块大小比扩散距离更重要,在大陆-岛屿集合中。

Patch size matters more than dispersal distance in a mainland-island metacommunity.

机构信息

Department of Ecology, SLU, Uppsala, Sweden.

出版信息

Oecologia. 2011 Nov;167(3):747-57. doi: 10.1007/s00442-011-2024-y. Epub 2011 May 29.

DOI:10.1007/s00442-011-2024-y
PMID:21625982
Abstract

Micro-arthropods in moss patches have been used as a model system to investigate the effects of habitat destruction and fragmentation on population viability and ecosystem functioning. Previous assessments of the sensitivity to fragmentation and the effectiveness of mitigating landscape structures have to some extent been contradictory, one possible reason being a lack of knowledge of the realised dispersal distances of the species involved. We investigated the dispersal capabilities of oribatid mites (Acari: Oribatida) and springtails (Collembola) in an experimentally fragmented system consisting of bryophytes on a bare rock surface. We used defaunated patches that were recolonized from populated patches nearby as well as from a mainland surrounding the experimental arena, during 10 weeks in summer. We measured within-mainland, mainland-to-island, and island-to-island dispersal, and found that: (1) Oribatid mites were severely dispersal limited within the time frame of the experiment, even at isolation distances of only 5 cm; (2) springtails did not show any dispersal limitation over distances as far as 300 cm; (3) despite the observed dispersal limitation, the mainland had a relatively large influence on microarthropod occurrence, even at 300 cm distance; and (4) the dispersal rates were high enough for both species sorting and-in the case of collembolans-mass effects processes to occur. Our results indicate that fragmentation can strongly influence species occurrence and abundance in natural systems that are limited by dispersal. They also show that the presence of a distant mainland can override the influence of nearby habitat patches on local diversity and abundance.

摘要

苔藓斑块中的微型节肢动物已被用作一个模型系统,以研究栖息地破坏和破碎化对种群生存力和生态系统功能的影响。先前对破碎化的敏感性和景观结构缓解效果的评估在某种程度上存在矛盾,一个可能的原因是缺乏对所涉及物种实际扩散距离的了解。我们在一个由裸岩表面上的苔藓组成的实验性破碎系统中研究了食真菌螨(节肢动物门:甲螨目)和跳虫(弹尾目)的扩散能力。我们使用了从附近有人居住的斑块以及从实验场地周围大陆上重新定居的无动物斑块,在夏季进行了 10 周的研究。我们测量了大陆内部、大陆到岛屿以及岛屿到岛屿的扩散,结果发现:(1)在实验的时间框架内,食真菌螨的扩散受到严重限制,即使在仅 5 厘米的隔离距离下也是如此;(2)跳虫在长达 300 厘米的距离内没有表现出任何扩散限制;(3)尽管存在观察到的扩散限制,但即使在 300 厘米的距离处,大陆对微节肢动物的发生仍有相对较大的影响;(4)两种物种的扩散速度都足够高,可以发生分选和(在跳虫的情况下)质量效应过程。我们的结果表明,在受扩散限制的自然系统中,破碎化可以强烈影响物种的出现和丰度。它们还表明,遥远大陆的存在可以抵消附近栖息地斑块对当地多样性和丰度的影响。

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