评估脆弱的高山溪流昆虫的耐热性,作为怀俄明州提顿山脉长期监测项目的一部分

Lusha M. Tronstad, J. J. Giersch, S. Hotaling, D. Finn, L. Zeglin, Oliver J. Wilmot, R. Bixby, Alisha A. Shah, M. Dillon
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引用次数: 0

摘要

随着气温变暖和水源干涸,高山溪流预计会减少。随着冰川和永久雪原的缩小,河流温度预计会上升。对于适应寒冷的水生昆虫来说,它们只能生活在由冰川或雪原滋养的小而高海拔的溪流中,水温升高可能是致命的。相反,河流中较少的水可能会增加昆虫在冬季冻结的可能性。我们测量了在格兰特提顿和冰川国家公园采集的三种高山石蝇,Zapada sp., lenia tetonica和lenia tumana的临界热最大值(CTMAX) -昆虫可以生存的最高非致死温度,以及过冷温度-昆虫冻结的温度。CTMAX和过冷点在物种间、河流来源(冰川补给、融雪补给和冰渗补给)和种群(7个种群)之间存在差异。过冷温度在高山河流中最低,在冰川和融雪河流中最高。Zapada种的CTMAX最低。来自冰冷渗漏的石蝇的CTMAX低于来自冰川或融雪溪流的石蝇。那些可能经历过冬季最冷温度的个体,其过冷温度最低。同样,经历过温暖水温的石蝇也有更高的CTMAX值。研究高山石蝇的耐热性使我们能够预测这些昆虫对未来气候变化的反应。特色照片由Nicole Y-C在Unsplash。https://unsplash.com/photos/9XixVlnUCbk
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Assessing thermal tolerance of vulnerable alpine stream insects as part of a long-term monitoring project in the Teton Range, Wyoming
Alpine streams are predicted to decline as air temperatures warm and their water sources dry. Stream temperatures are expected to increase as glaciers and permanent snowfields decrease in size. For aquatic insects that are cold-adapted and restricted to small, high elevation streams fed by glaciers or snowfields, warmer water temperatures could be lethal. Conversely, less water in streams may increase the likelihood of insects freezing during winter months. We measured the critical thermal maximum (CTMAX) – the highest non-lethal temperature an insect can survive, and supercooling temperature – the temperature at which an insect freezes, of three alpine stoneflies, Zapada sp., Lednia tetonica and Lednia tumana, collected in Grant Teton and Glacier National Parks. CTMAX and supercooling point varied among species and with stream source (glacier-fed, snowmelt-fed and icy seep) and population (seven populations). Supercooling temperature was lowest in an alpine tarn and highest in glacier- and snowmelt-fed streams. Zapada sp. had the lowest CTMAX of the three species. Stoneflies from icy seeps had lower CTMAX than individuals from glacier- or snowmelt-fed streams. Individuals that likely experience the coldest winter temperatures had the lowest supercooling temperature. Similarly, stoneflies that experienced warmer water temperatures also had higher CTMAX values. Investigating the thermal tolerances of alpine stoneflies allows us to predict how these insects may respond to future climate change scenarios.   Featured photo by Nicole Y-C on Unsplash. https://unsplash.com/photos/9XixVlnUCbk
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