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聚类捕获-再捕获法用于处理动物种群航空调查中的识别不确定性。

Cluster capture-recapture to account for identification uncertainty on aerial surveys of animal populations.

作者信息

Stevenson Ben C, Borchers David L, Fewster Rachel M

机构信息

School of Mathematics and Statistics, University of St Andrews, St Andrews, Fife, United Kingdom.

Department of Statistics, University of Auckland, Auckland, New Zealand.

出版信息

Biometrics. 2019 Mar;75(1):326-336. doi: 10.1111/biom.12983. Epub 2019 Apr 2.

DOI:10.1111/biom.12983
PMID:30298611
Abstract

Capture-recapture methods for estimating wildlife population sizes almost always require their users to identify every detected animal. Many modern-day wildlife surveys detect animals without physical capture-visual detection by cameras is one such example. However, for every pair of detections, the surveyor faces a decision that is often fraught with uncertainty: are they linked to the same individual? An inability to resolve every such decision to a high degree of certainty prevents the use of standard capture-recapture methods, impeding the estimation of animal density. Here, we develop an estimator for aerial surveys, on which two planes or unmanned vehicles (drones) fly a transect over the survey region, detecting individuals via high-definition cameras. Identities remain unknown, so one cannot discern if two detections match to the same animal; however, detections in close proximity are more likely to match. By modeling detection locations as a clustered point process, we extend recently developed methodology and propose a precise and computationally efficient estimator of animal density that does not require individual identification. We illustrate the method with an aerial survey of porpoise, on which cameras detect individuals at the surface of the sea, and we need to take account of the fact that they are not always at the surface.

摘要

用于估计野生动物种群规模的捕获-再捕获方法几乎总是要求使用者识别每一只被检测到的动物。许多现代野生动物调查在不进行实际捕获的情况下就能检测到动物——通过相机进行视觉检测就是一个例子。然而,对于每一对检测结果,调查员都面临一个往往充满不确定性的决策:它们是否与同一个体相关联?无法高度确定地解决每一个此类决策会阻碍标准捕获-再捕获方法的使用,进而妨碍动物密度的估计。在此,我们为航空调查开发了一种估计方法,即两架飞机或无人驾驶车辆(无人机)在调查区域上空沿样带飞行,通过高清相机检测个体。个体身份仍然未知,因此无法辨别两次检测是否对应同一只动物;然而,位置相近的检测结果更有可能匹配。通过将检测位置建模为聚类点过程,我们扩展了最近开发的方法,并提出了一种精确且计算效率高的动物密度估计方法,该方法不需要个体识别。我们用对鼠海豚的航空调查来说明该方法,在这次调查中相机在海面检测个体,并且我们需要考虑到它们并非总是在海面这一事实。

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