Data acquisition in animal ecology is rapidly accelerating due to inexpensive and accessible sensors such as smartphones, drones, satellites, audio recorders and bio-logging devices. These new technologies and the data they generate hold great potential for large-scale environmental monitoring and understanding, but are limited by current data processing approaches which are inefficient in how they ingest, digest, and distill data into relevant information. We argue that machine learning, and especially deep learning approaches, can meet this analytic challenge to enhance our understanding, monitoring capacity, and conservation of wildlife species. Incorporating machine learning into ecological workflows could improve inputs for population and behavior models and eventually lead to integrated hybrid modeling tools, with ecological models acting as constraints for machine learning models and the latter providing data-supported insights. In essence, by combining new machine learning approaches with ecological domain knowledge, animal ecologists can capitalize on the abundance of data generated by modern sensor technologies in order to reliably estimate population abundances, study animal behavior and mitigate human/wildlife conflicts. To succeed, this approach will require close collaboration and cross-disciplinary education between the computer science and animal ecology communities in order to ensure the quality of machine learning approaches and train a new generation of data scientists in ecology and conservation.
翻译:由于智能手机、无人驾驶飞机、卫星、录音机和生物记录装置等廉价和无障碍的传感器,动物生态数据获取正在迅速加快速度。这些新技术及其产生的数据具有大规模环境监测和理解的巨大潜力,但目前数据处理方法却有限,这些方法在如何摄取、消化和将数据提炼成相关信息方面效率低下。我们认为,机器学习,特别是深层学习方法,能够应对这一分析挑战,增进我们对野生动物物种的了解、监测能力和保护。将机器学习纳入生态工作流程可以改进人口和行为模型的投入,并最终导致综合混合模型工具,而生态模型则成为机器学习模型的制约因素,而后者则提供数据支持的洞察力。本质上,动物生态学家可以通过将新机器学习方法与生态领域知识相结合,利用现代传感技术产生的大量数据,以便可靠地估计人口丰度、研究动物行为和减轻人类/野生动物冲突。这一方法要取得成功,需要计算机科学和动物生态学界之间开展密切合作和跨学科教育,以确保机器学习方法的质量,并培训新一代数据保护科学家。