A digital twin for real-time biodiversity forecasting with citizen science data
Otso Ovaskainen · Steven Winter · Gleb Tikhonov · Patrik Lauha · Ari Lehtiö · Ossi Nokelainen · Nerea Abrego · Anni Aroluoma · Jesse Patrick Harrison · Mikko Heikkinen · Aleksi Kallio · Anniina Koliseva · Aleksi Lehikoinen · Tomas Roslin · Panu Somervuo · Allan Tainá Souza · Jemal Tahir · Jussi Talaskivi · Alpo Turunen · Aurélie Vancraeyenest · Gabriela Zuquim · Hannu Autto · Jari Hänninen · Jasmin Inkinen · Outa Kalttopää · Janne Koskinen · Matti Kotakorpi · Kim Kuntze · John Loehr · Marko Mutanen · Mikko Oranen · Riku Paavola · Risto Renkonen · Pauliina Schiestl-Aalto · Mikko Sipilä · Maija Sujala · Janne Sundell · Saana Tepsa · Esa-Pekka Tuominen · Joni Uusitalo · Mikko Vallinmäki · Emma Vatka · Silja Veikkolainen · Phillip C. Watts · David Dunson
期刊Nature Ecology & Evolution / Nat Ecol Evol
类型Article
发表2026-01-27 (online)
卷期页10(3): 481-495
收录2026-10-03
被浏览…
关键词digital twincitizen sciencebiodiversity predictionsmartphone audio recordingmachine learningbiomonitoringFinland
标签—
公民科学提供了大量的生物多样性数据。解锁其全部潜力的关键挑战包括让缺乏物种识别技能的公民参与进来,以及加速从数据收集到研究及监测成果的转化。在此,我们使用芬兰的大数据集展示了即使自身无法识别鸟类,公民也能为鸟类分布的实时预测做出贡献。这是通过一个数字孪生技术实现的,它将基于智能手机的公民科学与长期知识结合在一个持续更新的模型中。该应用程序将原始音频提交到后端,后端利用机器学习对鸟类进行分类,从而减少数据质量差异,并能够通过不断改进的分类器进行验证和重新分类。我们通过间隔录音和永久性点计数网络来抵消时空采样偏差。在两年内,该应用程序生成了 1500 万次鸟类检测。独立测试数据显示,数字孪生指导的模型在预测鸟类时空分布方面更为准确。 由于我们的方法具有高度可扩展性,并且即使在研究不足的地区也有潜力生成生物监测数据,因此它能够加速可靠生物多样性信息的流通,并增加公民科学项目的包容性。
Citizen science provides large amounts of biodiversity data. Key challenges in unlocking its full potential include engaging citizens with limited species identification skills and accelerating the transition from data collection to research and monitoring outputs. Here we use a large dataset from Finland to show how even citizens who cannot identify birds themselves can contribute to real-time predictions of avian distributions. This is achieved through a digital twin that combines smartphone-based citizen science with long-term knowledge in a continuously updating model. The app submits raw audio to a backend that classifies birds with machine learning, reducing variation in data quality and enabling validation and reclassification by continuously improving classifiers. We counteracted spatiotemporal sampling biases by interval recordings and permanent point count networks. Over 2 years, the app generated 15 million bird detections. Independent test data show that the digital-twin-informed models are more accurate at predicting bird spatiotemporal distributions. Because our approach is highly scalable and has the potential to generate biomonitoring data even in understudied areas, it could accelerate the flow of reliable biodiversity information and increase inclusivity in citizen science projects.

@article{ovaskainen2026,
author = {Otso Ovaskainen and Steven Winter and Gleb Tikhonov and Patrik Lauha and Ari Lehtiö and Ossi Nokelainen and Nerea Abrego and Anni Aroluoma and Jesse Patrick Harrison and Mikko Heikkinen and Aleksi Kallio and Anniina Koliseva and Aleksi Lehikoinen and Tomas Roslin and Panu Somervuo and Allan Tainá Souza and Jemal Tahir and Jussi Talaskivi and Alpo Turunen and Aurélie Vancraeyenest and Gabriela Zuquim and Hannu Autto and Jari Hänninen and Jasmin Inkinen and Outa Kalttopää and Janne Koskinen and Matti Kotakorpi and Kim Kuntze and John Loehr and Marko Mutanen and Mikko Oranen and Riku Paavola and Risto Renkonen and Pauliina Schiestl-Aalto and Mikko Sipilä and Maija Sujala and Janne Sundell and Saana Tepsa and Esa-Pekka Tuominen and Joni Uusitalo and Mikko Vallinmäki and Emma Vatka and Silja Veikkolainen and Phillip C. Watts and David Dunson},
title = {A digital twin for real-time biodiversity forecasting with citizen science data},
journal = {Nature Ecology \& Evolution},
year = {2026},
volume = {10},
number = {3},
pages = {481-495},
doi = {10.1038/s41559-025-02966-3},
publisher = {Springer Science and Business Media LLC},
}· END ·