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Is Bergmann's Rule Valid for Mammals?伯格曼法则对哺乳动物是否适用?
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THERMAL EVOLUTION OF EGG SIZE IN DROSOPHILA MELANOGASTER.黑腹果蝇卵大小的热演化
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AN INTERACTION BETWEEN ENVIRONMENTAL TEMPERATURE AND GENETIC VARIATION FOR BODY SIZE FOR THE FITNESS OF ADULT FEMALE DROSOPHILA MELANOGASTER.环境温度与基因变异对黑腹果蝇成年雌蝇体型适应性的相互作用。
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DENSITY-DEPENDENT NATURAL SELECTION IN DROSOPHILA: EVOLUTION OF GROWTH RATE AND BODY SIZE.果蝇中密度依赖型自然选择:生长速率与体型的进化
Evolution. 1997 Apr;51(2):420-432. doi: 10.1111/j.1558-5646.1997.tb02429.x.
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BERGMANN'S RULE IN ECTOTHERMS: IS IT ADAPTIVE?变温动物的伯格曼法则:它具有适应性吗?
Evolution. 1997 Apr;51(2):632-635. doi: 10.1111/j.1558-5646.1997.tb02454.x.
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LABORATORY EVOLUTION OF LIFE-HISTORY TRAITS IN THE BEAN WEEVIL (ACANTHOSCELIDES OBTECTUS): THE EFFECTS OF DENSITY-DEPENDENT AND AGE-SPECIFIC SELECTION.菜豆象生活史性状的实验室进化:密度依赖和年龄特异性选择的影响
Evolution. 1997 Dec;51(6):1896-1909. doi: 10.1111/j.1558-5646.1997.tb05112.x.
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GENETIC DIVERGENCE IN BODY SIZE AMONG EXPERIMENTAL POPULATIONS OF DROSOPHILA PSEUDOOBSCURA KEPT AT DIFFERENT TEMPERATURES.在不同温度下饲养的拟暗果蝇实验种群中体型的遗传分化。
Evolution. 1973 Jun;27(2):278-284. doi: 10.1111/j.1558-5646.1973.tb00673.x.
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EVOLUTION AND DEVELOPMENT OF BODY SIZE AND CELL SIZE IN DROSOPHILA MELANOGASTER IN RESPONSE TO TEMPERATURE.黑腹果蝇身体大小和细胞大小对温度响应的进化与发育
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Host-associated fitness variation in a seed beetle (Coleoptera: Bruchidae): evidence for local adaptation to a poor quality host.一种豆象(鞘翅目:豆象科)中与宿主相关的适合度变异:对劣质宿主局部适应的证据。
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在一种以种子为食的甲虫中,选择并不倾向于在较低温度下具有更大的体型。

Selection does not favor larger body size at lower temperature in a seed-feeding beetle.

作者信息

Stillwell R Craig, Moya-Laraño Jordi, Fox Charles W

机构信息

Department of Ecology and Evolutionary Biology, University of Arizona, BioSciences West 310, Tucson, Arizona 85721, USA.

出版信息

Evolution. 2008 Oct;62(10):2534-44. doi: 10.1111/j.1558-5646.2008.00467.x. Epub 2008 Aug 25.

DOI:10.1111/j.1558-5646.2008.00467.x
PMID:18647341
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC4679199/
Abstract

Body size of many animals increases with increasing latitude, a phenomenon known as Bergmann's rule (Bergmann clines). Latitudinal gradients in mean temperature are frequently assumed to be the underlying cause of this pattern because temperature covaries systematically with latitude, but whether and how temperature mediates selection on body size is unclear. To test the hypothesis that the "relative" advantage of being larger is greatest at cooler temperatures we compare the fitness of replicate lines of the seed beetle, Stator limbatus, for which body size was manipulated via artificial selection ("Large,""Control," and "Small" lines), when raised at low (22 degrees C) and high (34 degrees C) temperatures. Large-bodied beetles (Large lines) took the longest to develop but had the highest lifetime fecundity, and highest fitness (r(C)), at both low and high temperatures. However, the relative difference between the Large and Small lines did not change with temperature (replicate 2) or was greatest at high temperature (replicate 1), contrary to the prediction that the fitness advantage of being large relative to being small will decline with increasing temperature. Our results are consistent with two previous studies of this seed beetle, but inconsistent with prior studies that suggest that temperature-mediated selection on body size is a major contributor to the production of Bergmann clines. We conclude that other environmental and ecological variables that covary with latitude are more likely to produce the gradient in natural selection responsible for generating Bergmann clines.

摘要

许多动物的体型随着纬度的增加而增大,这一现象被称为伯格曼法则(伯格曼渐变群)。平均温度的纬度梯度常被认为是这种模式的潜在原因,因为温度与纬度呈系统性共变,但温度是否以及如何介导对体型的选择尚不清楚。为了检验在较凉爽温度下体型较大的“相对”优势最大这一假设,我们比较了种子甲虫Stator limbatus的重复品系在低温(22摄氏度)和高温(34摄氏度)下饲养时的适合度,这些品系的体型通过人工选择进行了操控(“大型”“对照”和“小型”品系)。体型较大的甲虫(大型品系)发育所需时间最长,但在低温和高温下都具有最高的终生繁殖力和最高适合度(r(C))。然而,大型和小型品系之间的相对差异并未随温度变化(重复2),或者在高温下最大(重复1),这与体型大相对于体型小的适合度优势会随温度升高而下降的预测相反。我们的结果与之前对这种种子甲虫的两项研究一致,但与之前认为温度介导的体型选择是产生伯格曼渐变群的主要因素的研究不一致。我们得出结论,与纬度共变的其他环境和生态变量更有可能产生导致伯格曼渐变群的自然选择梯度。