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联邦濒危物种钝鼻豹纹蜥蜴的热生态学

Thermal ecology of the federally endangered blunt-nosed leopard lizard ().

作者信息

Ivey Kathleen N, Cornwall Margaret, Crowell Hayley, Ghazian Nargol, Nix Emmeleia, Owen Malory, Zuliani Mario, Lortie Christopher J, Westphal Michael, Taylor Emily

机构信息

Biological Sciences Department, California Polytechnic State University, 1 Grand Ave. San Luis Obispo, CA 93401-0401, USA.

Department of Biology, York University, 4700 Keele St. Toronto, Ontario M3J1P3, Canada.

出版信息

Conserv Physiol. 2020 Feb 28;8(1):coaa014. doi: 10.1093/conphys/coaa014. eCollection 2020.

Abstract

Recognizing how climate change will impact populations can aid in making decisions about approaches for conservation of endangered species. The blunt-nosed leopard lizard () is a federally endangered species that, despite protection, remains in extremely arid, hot areas and may be at risk of extirpation due to climate change. We collected data on the field-active body temperatures, preferred body temperatures and upper thermal tolerance of . We then described available thermal habitat using biophysical models, which allowed us to (i) describe patterns in lizard body temperatures, microhabitat temperatures and lizard microhabitat use; (ii) quantify the lizards' thermoregulatory accuracy; (iii) calculate the number of hours they are currently thermally restricted in microhabitat use; (iv) project how the number of restricted hours will change in the future as ambient temperatures rise; and (v) assess the importance of giant kangaroo rat burrows and shade-providing shrubs in the current and projected future thermal ecology of . Lizards maintained fairly consistent daytime body temperatures over the course of the active season, and use of burrows and shrubs increased as the season progressed and ambient temperatures rose. During the hottest part of the year, lizards shuttled among kangaroo rat burrows, shrubs, and open habitat to maintain body temperatures below their upper thermal tolerance, but, occasionally, higher than their preferred body temperature range. Lizards are restricted from staying in the open habitat for 75% of daylight hours and are forced to seek refuge under shrubs or burrows to avoid surpassing their upper thermal threshold. After applying climatic projections of 1 and 2°C increases to 2018 ambient temperatures, will lose additional hours of activity time that could compound stressors faced by this population, potentially leading to extirpation.

摘要

认识到气候变化将如何影响种群,有助于做出关于濒危物种保护方法的决策。钝鼻豹纹蜥蜴()是一种联邦濒危物种,尽管受到保护,但仍生活在极端干旱、炎热的地区,可能因气候变化而面临灭绝风险。我们收集了钝鼻豹纹蜥蜴野外活动体温、偏好体温和热耐受性上限的数据。然后,我们使用生物物理模型描述了现有的热栖息地,这使我们能够:(i)描述蜥蜴体温、微栖息地温度和蜥蜴微栖息地利用模式;(ii)量化蜥蜴的体温调节精度;(iii)计算它们目前在微栖息地利用中受到热限制的小时数;(iv)预测随着环境温度升高,未来受限小时数将如何变化;(v)评估巨型更格卢鼠洞穴和提供遮荫的灌木在钝鼻豹纹蜥蜴当前和预测的未来热生态中的重要性。在活跃季节,蜥蜴白天体温保持相当一致,随着季节推进和环境温度升高,对洞穴和灌木的利用增加。在一年中最热的时候,蜥蜴在更格卢鼠洞穴、灌木和开阔栖息地之间穿梭,以保持体温低于其热耐受性上限,但偶尔会高于其偏好的体温范围。蜥蜴在白天75%的时间里被限制不能待在开阔栖息地,被迫在灌木或洞穴下寻求庇护,以避免超过其热阈值上限。将1℃和2℃的气候预测应用于2018年的环境温度后,钝鼻豹纹蜥蜴将失去更多活动时间,这可能会加重该种群面临的压力源, potentially leading to extirpation.(此处原文有误,根据语境推测正确翻译应该是“这可能会加重该种群面临的压力源,从而导致灭绝。” ) 将失去更多活动时间,这可能会加重该种群面临的压力源,从而导致灭绝。

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