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Wing Interferential Patterns (WIPs) and machine learning for the classification of some Aedes species of medical
Arnaud Cannet1, Camille Simon-Chane2, Aymeric Histace2
1Direction des affaires sanitaires et sociales de la Nouvelle-Calédonie, Nouméa, France.
Abstract:
Hematophagous insects belonging to the Aedes genus are proven vectors of viral and filarial pathogens of medical interest. Aedes albopictus is an increasingly important vector because of its rapid worldwide expansion. In the context of global climate change and the emergence of zoonotic infectious diseases, identification tools with field application are required to strengthen efforts in the entomological survey of arthropods with medical interest. Large scales and proactive entomological surveys of Aedes mosquitoes need skilled technicians and/or costly technical equipment, further puzzled by the vast amount of named species. In this study, we developed an automatic classification system of Aedes species by taking advantage of the species-specific marker displayed by Wing Interferential Patterns. A database holding 494 photomicrographs of 24 Aedes spp. from which those documented with more than ten pictures have undergone a deep learning methodology to train a convolutional neural network and test its accuracy to classify samples at the genus, subgenus, and species taxonomic levels. We recorded an accuracy of 95% at the genus level and > 85% for two (Ochlerotatus and Stegomyia) out of three subgenera tested. Lastly, eight were accurately classified among the 10 Aedes sp. that have undergone a training process with an overall accuracy of > 70%. Altogether, these results demonstrate the potential of this methodology for Aedes species identification and will represent a tool for the future implementation of large-scale entomological surveys.
Insights
An automated system uses wing patterns to identify Aedes mosquito species, crucial vectors of disease. This AI-driven tool offers a cost-effective solution for large-scale entomological surveys and disease control efforts.
Area of Science:
- Medical entomology
- Vector-borne disease surveillance
- Artificial intelligence in biology
Background:
- Hematophagous Aedes mosquitoes are significant vectors of viral and filarial diseases.
- Global climate change and emerging zoonotic diseases necessitate advanced field identification tools for Aedes species.
- Current entomological surveys are limited by the need for skilled technicians and expensive equipment.
Purpose of the Study:
- To develop an automated classification system for Aedes species identification using wing interferential patterns.
- To leverage deep learning and convolutional neural networks for accurate taxonomic classification.
- To provide a practical tool for enhancing large-scale entomological surveys.
Main Methods:
- A database of 494 photomicrographs from 24 Aedes species was created.
- A convolutional neural network was trained using deep learning methodology on selected species.
- The system was tested for accuracy at genus, subgenus, and species taxonomic levels.
Main Results:
- Achieved 95% accuracy in classifying Aedes at the genus level.
- Obtained over 85% accuracy for two out of three subgenera (Ochlerotatus and Stegomyia).
- Successfully classified 8 out of 10 Aedes species with over 70% accuracy.
Conclusions:
- The developed methodology shows significant potential for automated Aedes species identification.
- This AI-driven approach can support future large-scale entomological surveys.
- The system offers a promising tool for vector control and disease surveillance efforts.
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