Improving the integration of AI into existing ecological inference workflows
Amber CowansiD, Xavier LambiniD, Darragh HareiD, Chris S. SutherlandiD
Abstract
O_LIArtificial Intelligence (AI) has revolutionised the process of identifying species and individuals in audio recordings and camera trap images. However, despite developments in sensor technology, machine learning, and statistical methods, a general AI-assisted data-to-inference pipeline has yet to emerge. C_LIO_LIWe argue that this is, in part, due to a lack of clarity around several decisions in existing workflows, including: the choice of classifier used (e.g., semi- vs. fully automated); how classifier confidence scores are used and interpreted; and the availability and selection of appropriate statistical methods for drawing ecological inferences. C_LIO_LIHere, we attempt to conceptualise a general workflow associated with automated tools in ecology. We motivate this perspective using our experiences with occupancy modelling using monitoring data collected through passive acoustic monitoring and camera trapping, identifying priority areas for future developments. C_LIO_LIWe offer an accessible guide to support the ecological community in navigating and capitalising on rapid technological and methodological advances. We describe how different error types arise from both sensor-based monitoring and from classifiers themselves; how different error types are handled at each stage of the workflow; and finally, implications and opportunities associated with deciding on methods used at each step of the pipeline. C_LIO_LIWe recommend that "black box" tools like neural network classification algorithms should be embraced in ecology, but widespread uptake requires more formal integration of AI into the existing ecological inference workflows. Like ecological AI more broadly, however, successful development of new data-to-inference pipelines is a multidisciplinary endeavour that requires input from everyone invested in collecting, processing, analysing, and using ecological monitoring data. C_LI
02 /Specification & Classification
Click any tag to browse matching papers- Citations
- 13
- FWCI
- 3.20
- Field percentile
- top 8%
- Research Focus
- Approach
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- U-Infuse: Democratization of Customizable AI for Object Detection
A. Shepley, G. Falzon, … P. Kwan·bioRxiv·Oct 2, 2020
- Monte Carlo simulations to propagate the uncertainty of machine-learning classification into ecological models
Célian Monchy, Olivier Giménez, … Marie‐Pierre Étienne·bioRxiv·Jan 14, 2026
- Towards estimating marine wildlife abundance using aerial surveys and deep learning with hierarchical classifications subject to error
B. C. Augustine, M. D. Koneff, … J. A. Royle·bioRxiv·Feb 20, 2023
- A semi-automatic workflow to process camera trap images in R
H. Böhner, E. F. Kleiven, … E. M. Soininen·bioRxiv·Oct 5, 2022
- Deep Blueprint: A Literature Review and Guide to Automated Image Classification for Ecologists
Chloe A. Game, Nils Piechaud, Kerry L. Howell·Journal of Animal EcologyPeer-reviewed·Jun 1, 2026
- High performance machine learning models can fully automate labeling of camera trap images for ecological analyses
R. C. Whytock, J. Swiezewski, … K. A. Abernethy·bioRxiv·Sep 12, 2020