InsectNet: Real-time identification of insects using an end-to-end machine learning pipeline

Insect pests significantly impact global agricultural productivity and crop quality. Effective integrated pest management strategies require the identification of insects, including beneficial and harmful insects. Automated identification of insects under real-world conditions presents several challenges, including the need to handle intraspecies dissimilarity and interspecies similarity, life-cycle stages, camouflage, diverse imaging conditions, and variability in insect orientation. An end-to-end approach for training deep-learning models, InsectNet, is proposed to address these challenges. Our approach has the following key features: (i) uses a large dataset of insect images collected through citizen science along with label-free self-supervised learning to train a global model, (ii) fine-tuning this global model using smaller, expert-verified regional datasets to create a local insect identification model, (iii) which provides high prediction accuracy even for species with small sample sizes, (iv) is designed to enhance model trustworthiness, and (v) democratizes access through streamlined machine learning operations. This global-to-local model strategy offers a more scalable and economically viable solution for implementing advanced insect identification systems across diverse agricultural ecosystems. We report accurate identification (>96% accuracy) of numerous agriculturally and ecologically relevant insect species, including pollinators, parasitoids, predators, and harmful insects. InsectNet provides fine-grained insect species identification, works effectively in challenging backgrounds, and avoids making predictions when uncertain, increasing its utility and trustworthiness. The model and associated workflows are available through a web-based portal accessible through a computer or mobile device. We envision InsectNet to complement existing approaches, and be part of a growing suite of AI technologies for addressing agricultural challenges.

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Publication Details

Journal
PNAS Nexus
Published
2024-12-23
DOI
https://doi.org/10.1093/pnasnexus/pgae575
Citations
18
Primary Topic
Species Distribution and Climate Change
Type
article
Field-Weighted Citation Impact
16.55

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article

InsectNet: Real-time identification of insects using an end-to-end machine learning pipeline

Daren S. Mueller, Asheesh Kumar Singh, Nirav Merchant, Shivani Chiranjeevi et al.
18 citations
PNAS Nexus
Species Distribution and Climate Change
16.55
article

InsectNet: Real-time identification of insects using an end-to-end machine learning pipeline

Daren S. Mueller, Asheesh Kumar Singh, Nirav Merchant, Shivani Chiranjeevi, Talukder Zaki Jubery, Jayanth Koushik, Soumik Sarkar, Mojdeh Saadati, Matthew E. O’Neal, Aarti Singh, Zi K. Deng, Arti Singh, Baskar Ganapathysubramanian
article en
18 citations

Abstract

Insect pests significantly impact global agricultural productivity and crop quality. Effective integrated pest management strategies require the identification of insects, including beneficial and harmful insects. Automated identification of insects under real-world conditions presents several challenges, including the need to handle intraspecies dissimilarity and interspecies similarity, life-cycle stages, camouflage, diverse imaging conditions, and variability in insect orientation. An end-to-end approach for training deep-learning models, InsectNet, is proposed to address these challenges. Our approach has the following key features: (i) uses a large dataset of insect images collected through citizen science along with label-free self-supervised learning to train a global model, (ii) fine-tuning this global model using smaller, expert-verified regional datasets to create a local insect identification model, (iii) which provides high prediction accuracy even for species with small sample sizes, (iv) is designed to enhance model trustworthiness, and (v) democratizes access through streamlined machine learning operations. This global-to-local model strategy offers a more scalable and economically viable solution for implementing advanced insect identification systems across diverse agricultural ecosystems. We report accurate identification (>96% accuracy) of numerous agriculturally and ecologically relevant insect species, including pollinators, parasitoids, predators, and harmful insects. InsectNet provides fine-grained insect species identification, works effectively in challenging backgrounds, and avoids making predictions when uncertain, increasing its utility and trustworthiness. The model and associated workflows are available through a web-based portal accessible through a computer or mobile device. We envision InsectNet to complement existing approaches, and be part of a growing suite of AI technologies for addressing agricultural challenges.

PNAS NexusVol. 4(1)
University of Arizona (US), Iowa State University (US), Carnegie Mellon University (US)
National Science Foundation, U.S. Department of Agriculture, Center for Produce Safety, Plant Sciences Institute, Iowa State University
Zero hunger
Openalex Percentile: Top 1%
Species Distribution and Climate Change
16.55
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