Rapid literature mapping on the recent use of machine learning for wildlife imagery

S Nakagawa, M. Lagisz, R. Francis, Jessica Tam, Xun Li, Andrew Elphinstone, N. Jordan, J. O’Brien, B. Pitcher, M. van Sluys, A. Sowmya, R. Kingsford
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引用次数: 1

Abstract

Machine (especially deep) learning algorithms are changing the way wildlife imagery is processed. They dramatically speed up the time to detect, count, and classify animals and their behaviours. Yet, we currently have very few systematic literature surveys on its use in wildlife imagery. Through a literature survey (a ‘rapid’ review) and bibliometric mapping, we explored its use across: 1) species (vertebrates), 2) image types (e.g., camera traps, or drones), 3) study locations, 4) alternative machine learning algorithms, 5) outcomes (e.g., recognition, classifi-cation, or tracking), 6) reporting quality and openness, 7) author affiliation, and 8) publication journal types. We found that an increasing number of studies used convolutional neural networks (i.e., deep learning). Typically, studies have focused on large charismatic or iconic mammalian species. An increasing number of studies have been published in ecology-specific journals indicating the uptake of deep learning to transform the detection, classification and tracking of wildlife. Sharing of code was limited, with only 20% of studies providing links to analysis code. Much of the published research and focus on animals came from India, China, Australia, or the USA. There were relatively few collaborations across countries. Given the power of machine learning, we recommend increasing collaboration and sharing approaches to utilise increasing amounts of wildlife imagery more rapidly and transform and improve understanding of wildlife behaviour and conservation. Our survey, augmented with bibliometric analyses, provides valuable signposts for future studies to resolve and address shortcomings, gaps, and biases.
快速文献映射最近使用的机器学习野生动物图像
机器(尤其是深度)学习算法正在改变野生动物图像的处理方式。它们大大加快了检测、计数和分类动物及其行为的时间。然而,我们目前很少有关于其在野生动物图像中的使用的系统文献调查。通过文献调查(“快速”综述)和文献计量制图,我们探索了它在以下方面的应用:1)物种(脊椎动物),2)图像类型(如相机陷阱或无人机),3)研究地点,4)替代机器学习算法,5)结果(如识别、分类或跟踪),6)报告质量和开放性,7)作者单位,8)出版期刊类型。我们发现,越来越多的研究使用卷积神经网络(即深度学习)。通常,研究的重点是大型有魅力或标志性的哺乳动物物种。越来越多的研究发表在生态学专业期刊上,表明深度学习可以改变野生动物的检测、分类和追踪。代码共享受到限制,只有20%的研究提供了分析代码的链接。大部分已发表的关于动物的研究和关注来自印度、中国、澳大利亚或美国。各国之间的合作相对较少。鉴于机器学习的力量,我们建议增加合作和共享方法,以更快地利用越来越多的野生动物图像,并转变和提高对野生动物行为和保护的理解。我们的调查,加上文献计量分析,为未来的研究提供了宝贵的路标,以解决和解决缺点、差距和偏见。
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