超过雄性死亡:重建始新世琥珀林中陆生不咬人蠓的个体发生系列

IF 1.5 3区 地球科学 Q3 GEOSCIENCES, MULTIDISCIPLINARY
V. Baranov, C. Hoffeins, H. Hoffeins, J. Haug
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引用次数: 8

摘要

Holometabola的多样性仅来自四个超多样性谱系,其中一个是双翅目。不咬人的侏儒(摇蚊科)被认为是该类群历史上最成功的直翅目昆虫(Marshall 2012)。现存至少有6300种正式描述的摇蚊科物种。它们的幼虫定居在大多数可用的淡水栖息地,以及一些海洋、亚地形和陆地栖息地(Langton 1995,Ferrington 2008,Andersen等人2016)。摇蚊科的陆生幼虫对我们理解摇蚊的生理学和进化生物学很重要。原因在于幼虫栖息在非水生栖息地,如潮湿的土壤、粪便、落叶、苔藓地毯等,这通常被认为是该群体的第二专业化(Langton 1995,Delettre 2005)。因此,长期以来,摇蚊科的陆生幼虫一直被认为是干燥适应、渗透调节和隐生物的模型(Frouz 19972010;Wichard等人2002)。在现存的生态系统中,带陆生幼虫的摇蚊科代表最常见于热带或中等气候、空气水蒸气饱和度高的地区(Andersen等人,20152016;Zelentsov等人,2012)。化石记录中通常没有摇蚊科的陆生幼虫,因为这些幼虫通常不在活动沉积区(即湖泊盆地、河流三角洲;例如Wichard等人,2009)。然而,根据系统发育推理,一些琥珀沉积物中有相当高比例的成年不咬人侏儒,它们应该拥有陆地幼虫(Zelentsov等人,2012)。尤其是在罗夫诺琥珀中,摇蚊科这种成年形态类型的比例达到40.1%(Zelentsov等人,2012)。这种形态类型在波罗的海和比特菲尔德(萨克森)琥珀中也相对丰富(Hoffeins和Hoffeins 2003,Seredszus和Wichard 2007)。考虑到这些成年形态类型的丰富性,我们应该能够在始新世琥珀矿床中找到相应的未成熟阶段,从而找到摇蚊科的陆生幼虫代表(Zelentsov等人,2012)。由于琥珀中苔藓植物的丰度相对较高,这种可能性甚至在增加,苔藓植物是摇蚊科现代陆生幼虫的基质(Weitschat&Wichard,2010)。事实上,Andersen等人(2015)报道了Rovno琥珀中摇蚊科蛹的蜕皮,更准确地说,这可能是一种代表
本文章由计算机程序翻译,如有差异,请以英文原文为准。
More than dead males: reconstructing the ontogenetic series of terrestrial non-biting midges from the Eocene amber forest
of the diversity within Holometabola results from only four hyperdiverse lineages, one of which is Diptera. Nonbiting midges (Chironomidae) have been considered to be among the most successful ingroups of Diptera in the history of the group (Marshall 2012). There are at least 6300 formally described extant species of Chironomidae. Their larvae have colonized most of the available freshwater habitats, as well as some marine, sub-terrain and terrestrial habitats (Langton 1995, Ferrington 2008, Andersen et al. 2016). Terrestrial larvae of Chironomidae are important for our understanding of the physiology and evolutionary biology of the group. The reason for that lies in the habitation of the larvae in non-aquatic habitats, such as wet soil, dung, leaf-litter, moss carpets etc., which is generally considered to be a secondary specialisation for the group (Langton 1995, Delettre 2005). Therefore, for long, terrestrial larvae of Chironomidae have been considered as models for desiccation adaptation, osmoregulation and cryptobiosis (Frouz 1997, 2010; Wichard et al. 2002). In extant ecosystems representatives of Chiro nomidae with terrestrial larvae are most common in areas with tropical or moderate climate and high saturation of the air with water vapor (Andersen et al. 2015, 2016; Zelentsov et al. 2012). The fossil record is usually devoid of terrestrial larvae of Chironomidae, as these are not normally found in the areas of the active sedimentation (i.e. lake basins, river deltas; e.g. Wichard et al. 2009). Nevertheless, some amber deposits have a rather high proportion of adult non-biting midges that should possess terrestrial larvae, based on phylogenetic reasoning (Zelentsov et al. 2012). In Rovno amber in particular, the share of such adult morphotypes of Chironomidae reaches 40.1% (Zelentsov et al. 2012). Such morphotypes are also relatively abundant in Baltic and Bitterfeld (Saxonian) ambers (Hoffeins & Hoffeins 2003, Seredszus & Wichard 2007). Giving the abundance of these adult morphotypes, we should expect to find corresponding immature stages, hence terrestrial larval representatives of Chironomidae in Eocene amber deposits (Zelentsov et al. 2012). Such a probability is even increasing due to the relatively high abundance of bryophytes, which serve as a substrate for modern terrestrial larvae of Chironomidae, in amber (Weitschat & Wichard 2010). Indeed, Andersen et al. (2015) reported the exuvia of a pupa of Chironomidae from Rovno amber, more precisely a possible repre sentative
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来源期刊
Bulletin of Geosciences
Bulletin of Geosciences 地学-地球科学综合
CiteScore
3.10
自引率
5.30%
发文量
18
审稿时长
>12 weeks
期刊介绍: The Bulletin of Geosciences is an international journal publishing original research papers, review articles, and short contributions concerning palaeoenvironmental geology, including palaeontology, stratigraphy, sedimentology, palaeogeography, palaeoecology, palaeoclimatology, geochemistry, mineralogy, geophysics, and related fields. All papers are subject to international peer review, and acceptance is based on quality alone.
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