Why may the same species have different elevational ranges at different sites in New Guinea?

Q4 Agricultural and Biological Sciences
J. Diamond, K. Bishop
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引用次数: 2

Abstract

Summary. Species in mountainous areas have characteristic elevational ranges, but with some variation from site to site. Such variation has been studied extensively elsewhere in the world, but not yet for New Guinea bird species. Hence, we examined five sources of that variation for New Guinea birds: latitude, competition, slope, the Massenerhebung effect, and physical barriers. Decreases of species elevational ranges with latitude are illustrated by three sets of examples: 20 species confined to New Guinea's mountains, but which descend to sea level at higher latitudes in Australia (joined to New Guinea at Pleistocene times of low sea level); 13 sea-level populations of some of the same New Guinea upland species on New Guinea's Fly River bulge; and 11 populations on the Aru Islands (part of Pleistocene New Guinea and Australia). Many New Guinea species contract or expand their elevational ranges, associated with the presence or absence of competing congenerics, which segregate by elevation at sites of sympatry. The flat Karimui Basin at an elevation of 1,110 m illustrates effects of slope, because the basin supports populations of many species otherwise characteristic of the flat lowlands, and lacks populations of many hill forest species characteristic of the sloping terrain found at that elevation elsewhere in New Guinea. We provide three sets of New Guinea examples of the Massenerhebung effect described for mountains elsewhere in the world: shifts of species to higher elevations on large high mountains far from the sea than on small coastal mountains or isolated mountains. Finally, we suggest that very steep high ridges boxing in a watershed on the Foja Mts. constitute dispersal barriers that have prevented 33 species expected at that watershed's elevation from arriving or establishing themselves.
为什么同一物种在新几内亚的不同地点有不同的海拔范围?
总结。山区的物种有典型的海拔范围,但在不同的地点有一定的差异。这种变异已经在世界其他地方进行了广泛的研究,但尚未对新几内亚的鸟类进行研究。因此,我们研究了新几内亚鸟类变异的五个来源:纬度、竞争、坡度、Massenerhebung效应和物理障碍。物种海拔高度范围随纬度的减小可以用三组例子来说明:20种物种局限于新几内亚山脉,但在澳大利亚的高纬度地区下降到海平面(在低海平面的更新世时期与新几内亚相连);在新几内亚飞河凸起处的一些新几内亚高地物种的13个海平面种群;在阿鲁群岛(更新世新几内亚和澳大利亚的一部分)有11个种群。许多新几内亚物种缩小或扩大其海拔范围,与竞争的同属物种的存在或不存在有关,这些同属物种在同栖地点按海拔分离。海拔1110米的卡里穆伊盆地地势平坦,说明了坡度的影响,因为该盆地支持许多平坦低地特有的物种种群,而在新几内亚其他地方的海拔高度,却缺乏许多山坡森林特有的物种种群。我们提供了三组新几内亚的例子,说明了世界其他地方的山脉所描述的Massenerhebung效应:在远离海洋的大高山上,物种向更高海拔的转移,而不是在沿海的小山脉或孤立的山脉上。最后,我们认为,在Foja山脉的一个分水岭上,非常陡峭的高脊形成了扩散障碍,阻止了该分水岭海拔的33个物种到达或定居。
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来源期刊
Bulletin of the British Ornithologists'' Club
Bulletin of the British Ornithologists'' Club Agricultural and Biological Sciences-Animal Science and Zoology
CiteScore
0.80
自引率
0.00%
发文量
35
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