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本文引用的文献

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Risks of Population Extinction from Demographic and Environmental Stochasticity and Random Catastrophes.人口因人口统计学和环境随机性以及随机灾难而灭绝的风险。
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Relative contribution of abundant and rare species to species-energy relationships.丰富物种和稀有物种对物种-能量关系的相对贡献。
Biol Lett. 2005 Mar 22;1(1):87-90. doi: 10.1098/rsbl.2004.0251.
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Rules of thumb for judging ecological theories.判断生态理论的经验法则。
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Model selection in ecology and evolution.生态学和进化中的模型选择。
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Species-energy relationships at the macroecological scale: a review of the mechanisms.宏观生态尺度下的物种-能量关系:机制综述
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A test of multiple hypotheses for the species richness gradient of South American owls.对南美猫头鹰物种丰富度梯度的多个假设的检验。
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New mitochondrial DNA data affirm the importance of Pleistocene speciation in North American birds.新的线粒体DNA数据证实了更新世物种形成在北美鸟类中的重要性。
Evolution. 2004 May;58(5):1122-30. doi: 10.1111/j.0014-3820.2004.tb00445.x.
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Energy gradients and the geographic distribution of local ant diversity.能量梯度与当地蚂蚁多样性的地理分布。
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剖析物种-能量关系。

Dissecting the species-energy relationship.

作者信息

Evans Karl L, Greenwood Jeremy J D, Gaston Kevin J

机构信息

Biodiversity and Macroecology Group, Department of Animal and Plant Sciences, University of Sheffield, Sheffield S10 2TN, UK.

出版信息

Proc Biol Sci. 2005 Oct 22;272(1577):2155-63. doi: 10.1098/rspb.2005.3209.

DOI:10.1098/rspb.2005.3209
PMID:16188604
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC1559954/
Abstract

Environmental energy availability can explain much of the spatial variation in species richness. Such species-energy relationships encompass a diverse range of forms, and there is intense debate concerning which of these predominate, and the factors promoting this diversity. Despite this there has been relatively little investigation of whether the form, and relative strength, of species-energy relationships varies with (i) the currency of energy availability that is used, and (ii) the ecological characteristics of the constituent species. Such investigations can, however, shed light on the causal mechanisms underlying species-energy relationships. We illustrate this using the British breeding avifauna. The strength of the species-energy relationship is dependent on the energy metric used, with species richness being more closely correlated with temperature than the Normalized Difference Vegetation Index, which is a strong correlate of net primary productivity. We find little evidence, however, for the thermoregulatory load hypothesis that high temperatures enable individuals to invest in growth and reproduction, rather than thermoregulation, increasing population sizes that buffer species from extinction. High levels of productive energy may also elevate population size, which is related to extinction risk by a negative decelerating function. Therefore, the rarest species should exhibit the strongest species-energy relationship. We find evidence to the contrary, together with little support for suggestions that high-energy availability elevates species richness by increasing the numbers of specialists or predators.

摘要

环境能量可利用性能够解释物种丰富度在空间上的大部分变化。此类物种 - 能量关系包含多种不同形式,并且对于哪种形式占主导以及促进这种多样性的因素存在激烈争论。尽管如此,对于物种 - 能量关系的形式和相对强度是否会随着(i)所使用的能量可利用性指标,以及(ii)组成物种的生态特征而变化,相关研究相对较少。然而,此类研究能够揭示物种 - 能量关系背后的因果机制。我们以英国繁殖鸟类群落为例进行说明。物种 - 能量关系的强度取决于所使用的能量指标,物种丰富度与温度的相关性比归一化植被指数更高,而归一化植被指数与净初级生产力密切相关。然而,我们几乎没有找到证据支持体温调节负荷假说,即高温使个体能够将能量投入到生长和繁殖而非体温调节中,从而增加种群数量以缓冲物种灭绝风险。高生产力能量水平也可能提高种群数量,而种群数量与灭绝风险呈负减速函数关系。因此,最稀有的物种应该呈现出最强的物种 - 能量关系。但我们发现事实恰恰相反,同时也几乎没有证据支持高能量可利用性通过增加特化物种或捕食者数量来提高物种丰富度的观点。