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南美洲动植物群在更新世的变化。

Pleistocene changes in the fauna and flora of South america.

作者信息

Vuilleumier B S

出版信息

Science. 1971 Aug 27;173(3999):771-80. doi: 10.1126/science.173.3999.771.

DOI:10.1126/science.173.3999.771
PMID:17812182
Abstract

In recent years, the view that Pleistocene climatic events played a major role in the evolution of the biotas of southern, primarily tropical continents has begun to displace the previously held conviction that these areas remained relatively stable during the Quaternary. Studies of speciation patterns of high Andean plant and avian taxa (7-14) have led to the conclusion that Pleistocene climatic events were the factors that ultimately shaped the patterns now observed in the paramo-puna and the related Patagonian flora and fauna. The final uplift of the Andes at the end of the Tertiary automatically limits the age of the high Andean habitats and their biotas to the Quaternary. Within this period, the number of ecological fluctuations caused by the glaciations could easily have provided the mechanism behind the patterns now present in these habitats (Appendix, 1; Figs. 1 and 2; Table 1). In glacial periods, when vegetation belts, were lowered, organisms in the paramo-puna habitat were allowed to expand their ranges. In interglacial periods, these taxa were isolated on disjunct peaks, where differentiation could occur. At times of ice expansion, glacial tongues and lakes provided local barriers to gene exchange, whereas in warm, interglacial times, dry river valleys were a major deterrent to the interbreeding of populations on different mountains (Fig. 2; Table 2). A preliminary analysis of about 10 to 12 percent of the total South American avifauna (14), subsequent to the study of the high Andean biota, suggested that the birds of all the major habitats of the continent possess, with about equal frequency, similar stages of speciation. This correspondence in levels of evolution indicated that the avifauna of vegetation zones which were thought to have been more stable (for example, tropical rainforests) are as actively speciating as are those of the more recent paramo-puna habitats. More intensive work on lowland tropical taxa (16, 19-21) and recent work on montane forest elements (40) now justify the conclusion that the floras and faunas of these areas were also greatly affected by Pleistocene climatic shifts. In the broad region of South America that lies within the tropics, a series of humid-arid cycles (Appendix, 6, 8-10) drastically and repeatedly altered vegetation patterns during the Quaternary. Both montane and lowland rainforests were fragmented during dry periods and were able to reexpand during humid phases. Speciation of forest elements was initiated-and sometimes completed-in isolated patches of the fragmented forest. Secondary contact, with hybridization or reunition of populations that did not become reproductively isolated, occurred in periods of reexpansion. These biological data, combined with supportive geological evidence (Appendix, 1-11), show that climatic events during the last million or so years have affected the biota of South America as much as the Pleistocene glacial changes affected the biotas of Eurasia and North America. Since most of South America lies within tropical latitudes, it is suggested here that part of the diversity of species in the tropical areas of this continent is due to two historical factors: the lack of wholesale elimination of species (compared with northern and high latitudes), and ample opportunity for speciation in successive periods of ecological isolation. The apparent paradox of the wealth of species in the "stable tropics" is partially explained by the fact that the tropics have probably been quite unstable, from the point of view of their biotas, during the Pleistocene and perhaps part of the Tertiary.

摘要

近年来,一种观点开始取代此前人们所持的信念,即更新世气候事件在主要为热带的南方大陆生物群的演化过程中起到了主要作用,这种观点认为这些地区在第四纪期间保持了相对稳定。对安第斯山脉高处植物和鸟类分类群物种形成模式的研究(7 - 14)得出结论,更新世气候事件是最终塑造了现今在帕拉莫 - 普纳以及相关巴塔哥尼亚动植物群中所观察到的模式的因素。第三纪末期安第斯山脉的最终隆升自动将安第斯山脉高处栖息地及其生物群的年代限定在了第四纪。在这一时期内,由冰川作用引起的生态波动次数很可能为现今这些栖息地中呈现的模式提供了背后的机制(附录1;图1和图2;表1)。在冰川期,当植被带下降时,帕拉莫 - 普纳栖息地的生物得以扩大其分布范围。在间冰期,这些分类群被隔离在分散的山峰上,在那里可能会发生分化。在冰川扩张时期,冰川舌和湖泊成为了基因交流的局部障碍,而在温暖的间冰期,干涸的河谷是不同山脉上种群杂交繁殖的主要阻碍(图2;表2)。在对安第斯山脉高处生物群进行研究之后,对约占南美鸟类总数10%至12%的鸟类进行的初步分析(14)表明,该大陆所有主要栖息地的鸟类具有大致相同频率的相似物种形成阶段。这种进化水平上的一致性表明,那些被认为更为稳定的植被带(例如热带雨林)的鸟类群落与较新的帕拉莫 - 普纳栖息地的鸟类群落一样,正在积极地进行物种形成。对低地热带分类群开展的更深入研究(16,19 - 21)以及近期对山地森林元素的研究(40)如今证实了这样一个结论,即这些地区的动植物群也受到了更新世气候变化的极大影响。在南美洲位于热带地区的广阔区域内,一系列湿润 - 干旱循环(附录6、8 - 10)在第四纪期间剧烈且反复地改变了植被模式。山地和低地雨林在干旱时期都被分割,而在湿润阶段又能够重新扩张。森林元素的物种形成在碎片化森林的孤立斑块中启动——有时甚至完成。在重新扩张时期,未发生生殖隔离的种群之间会出现二次接触,并伴有杂交或重新合并。这些生物学数据,再加上支持性的地质证据(附录1 - 11),表明在过去大约一百万年左右的时间里,气候事件对南美洲生物群的影响程度与更新世冰川变化对欧亚大陆和北美洲生物群的影响程度相当。由于南美洲大部分地区位于热带纬度,本文认为该大陆热带地区物种多样性的一部分归因于两个历史因素:与北半球和高纬度地区相比,缺乏对物种的大规模灭绝,以及在连续的生态隔离时期有充足的物种形成机会。“稳定的热带地区”物种丰富这一明显的矛盾在一定程度上可以通过以下事实来解释,即从生物群的角度来看,热带地区在更新世以及可能部分在第三纪期间可能一直相当不稳定。

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