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驼鹿(Alces alces)通过利用北方森林中的避暑地来应对夏季高温——这是基于驼鹿栖息地树冠结构的航空激光扫描进行的分析。

Moose (Alces alces) reacts to high summer temperatures by utilizing thermal shelters in boreal forests - an analysis based on airborne laser scanning of the canopy structure at moose locations.

机构信息

School of Forest Sciences, University of Eastern Finland, P.O. Box 111, Joensuu, 80101, Finland.

出版信息

Glob Chang Biol. 2014 Apr;20(4):1115-25. doi: 10.1111/gcb.12405. Epub 2014 Feb 12.

DOI:10.1111/gcb.12405
PMID:24115403
Abstract

The adaptation of different species to warming temperatures has been increasingly studied. Moose (Alces alces) is the largest of the ungulate species occupying the northern latitudes across the globe, and in Finland it is the most important game species. It is very well adapted to severe cold temperatures, but has a relatively low tolerance to warm temperatures. Previous studies have documented changes in habitat use by moose due to high temperatures. In many of these studies, the used areas have been classified according to how much thermal cover they were assumed to offer based on satellite/aerial imagery data. Here, we identified the vegetation structure in the areas used by moose under different thermal conditions. For this purpose, we used airborne laser scanning (ALS) data extracted from the locations of GPS-collared moose. This provided us with detailed information about the relationships between moose and the structure of forests it uses in different thermal conditions and we were therefore able to determine and differentiate between the canopy structures at locations occupied by moose during different thermal conditions. We also discovered a threshold beyond which moose behaviour began to change significantly: as day temperatures began to reach 20 °C and higher, the search for areas with higher and denser canopies during daytime became evident. The difference was clear when compared to habitat use at lower temperatures, and was so strong that it provides supporting evidence to previous studies, suggesting that moose are able to modify their behaviour to cope with high temperatures, but also that the species is likely to be affected by warming climate.

摘要

不同物种对变暖温度的适应已越来越多地被研究。驼鹿(Alces alces)是生活在全球北部纬度的最大有蹄类动物之一,在芬兰,它是最重要的狩猎物种。它非常适应严寒的温度,但对温暖的温度容忍度相对较低。以前的研究记录了由于高温而导致的驼鹿栖息地使用的变化。在这些研究中,许多研究区域是根据它们根据卫星/航空图像数据假设提供的热覆盖程度进行分类的。在这里,我们根据不同的热条件确定了驼鹿使用的区域的植被结构。为此,我们使用了从 GPS 项圈驼鹿的位置提取的机载激光扫描(ALS)数据。这为我们提供了有关驼鹿与它在不同热条件下使用的森林结构之间关系的详细信息,因此我们能够确定和区分在不同热条件下驼鹿占据的位置的冠层结构。我们还发现了一个阈值,超过这个阈值,驼鹿的行为开始发生显著变化:当白天温度开始达到 20°C 及更高时,在白天寻找具有更高和更密集树冠的区域变得明显。与较低温度下的栖息地使用情况相比,这一差异明显,而且非常强烈,这为以前的研究提供了支持证据,表明驼鹿能够改变行为以适应高温,但也表明该物种可能受到气候变暖的影响。

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