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韩国和日本地下独眼水蚤的特有性,兼 languidoides 组七个新物种的描述以及对 Ishida 于 2006 年描述的短叉独眼水蚤和 Ito 于 1954 年描述的索氏独眼水蚤的重新描述(甲壳纲,桡足亚纲,剑水蚤目)

Endemism of subterranean Diacyclops in Korea and Japan, with descriptions of seven new species of the languidoides-group and redescriptions of D. brevifurcus Ishida, 2006 and D. suoensis Ito, 1954 (Crustacea, Copepoda, Cyclopoida).

作者信息

Karanovic Tomislav, Grygier Mark J, Lee Wonchoel

机构信息

Hanyang University, Department of Life Sciences, Seoul 133-791, Korea ; University of Tasmania, IMAS, Hobart, Tasmania 7001, Australia.

出版信息

Zookeys. 2013 Feb 8(267):1-76. doi: 10.3897/zookeys.267.3935. Print 2013.

DOI:10.3897/zookeys.267.3935
PMID:23653520
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC3591758/
Abstract

Copepods have been poorly studied in subterranean habitats in Korea. Previous records have indicated mostly the presence of species already described from Japan, with very few endemic elements. This commonality has usually been explained by repeated dispersal across the land bridges that connected the two countries several times during the Pleistocene glacial cycles. However, the Korean Peninsula is known for pockets of Cambrian and Ordovician carbonate rocks, with more than 1,000 caves already having been explored. The relative isolation of these carbonate pockets makes for an enormous speciation potential, and the development of a high level of short-range endemism of subterranean copepods should be expected. Representatives of the genus Diacyclops Kiefer, 1927 are here investigated from a range of subterranean habitats in South Korea, with comparative material sampled from central Honshu in Japan. Morphological analyses of microcharacters, many of which are used in cyclopoid taxonomy for the first time herein, reveal high diversity in both countries. No subterranean species is found in common, although the existence of four sibling species pairs in Korea and Japan may be indicative of relatively recent speciation. We describe seven new stygobiotic species, including three from Korea (Diacyclops hanguk sp. n., Diacyclops leeae sp. n., and Diacyclops parasuoensis sp. n.) and four from Japan (Diacyclops hisuta sp. n., Diacyclops ishidai sp. n., Diacyclops parahanguk sp. n., and Diacyclops pseudosuoensis sp. n.). Diacyclops hanguk, Diacyclops parasuoensis, Diacyclops ishidai, and Diacyclops parahanguk are described from newly collected material, while the other three new species are proposed for specimens previously identified as other, widely distributed species. Diacyclops brevifurcus Ishida, 2006 is redescribed from the holotype female, and Diacyclops suoensis Ito, 1954 is redescribed from material newly collected near the ancient Lake Biwa in Japan. This research provides evidence for the importance of subterranean habitats as reservoirs of biodiversity, and also demonstrates the inadequacy of current morphological methods of identifying closely related species of copepods. The disproportionately high diversity discovered around Lake Biwa provides further evidence in support of the hypothesis about the role of ancient lakes as biodiversity pumps for subterranean habitats. A key to the East Asian species of the languidoides-group is provided.

摘要

在韩国的地下生境中,桡足类动物一直未得到充分研究。先前的记录大多表明存在已在日本描述过的物种,特有成分极少。这种共性通常被解释为在更新世冰川周期中多次连接两国的陆桥上反复扩散的结果。然而,朝鲜半岛以寒武纪和奥陶纪碳酸盐岩分布区而闻名,现已勘探出1000多个洞穴。这些碳酸盐分布区的相对隔离为物种形成提供了巨大潜力,预计地下桡足类动物会出现高度的短程特有现象。本文对采自韩国一系列地下生境的1927年基弗氏双循环镖水蚤属代表物种进行了研究,并与从日本本州中部采集的对照样本进行了比较。对微观特征的形态学分析(其中许多特征在本文中首次用于镖水蚤分类)揭示了两国的高度多样性。尽管韩国和日本存在四对姊妹物种可能表明物种形成相对较新,但未发现共有的地下物种。我们描述了七个新的穴居物种,其中三个来自韩国(韩国双循环镖水蚤、李氏双循环镖水蚤和副须双循环镖水蚤),四个来自日本(刚毛双循环镖水蚤、石田双循环镖水蚤、副韩国双循环镖水蚤和拟须双循环镖水蚤)。韩国双循环镖水蚤、副须双循环镖水蚤、石田双循环镖水蚤和副韩国双循环镖水蚤是根据新采集的样本描述的,而其他三个新物种是针对先前被鉴定为其他广泛分布物种的标本提出的。2006年石田氏短叉双循环镖水蚤根据正模雌性标本重新描述,1954年伊藤氏须双循环镖水蚤根据在日本琵琶湖附近新采集的样本重新描述。这项研究为地下生境作为生物多样性储存库的重要性提供了证据,同时也证明了当前用于鉴定密切相关桡足类物种的形态学方法存在不足。在琵琶湖周围发现的极高多样性进一步支持了古代湖泊作为地下生境生物多样性泵的作用这一假说。本文提供了东亚慵懒类群物种的检索表。

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2
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Mol Cells. 2006 Feb 28;21(1):89-103.
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[New data on Cyclopoida in the lake Baikal].
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Ecol Evol. 2017 Aug 1;7(17):7091-7103. doi: 10.1002/ece3.3159. eCollection 2017 Sep.
4
Morphological and molecular diversity of Lake Baikal candonid ostracods, with description of a new genus.贝加尔湖烛眼介形虫的形态学和分子多样性,兼新属描述
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