A real-time remote surveillance system for fruit flies of economic importance: sensitivity and image analysis

Timely detection of an invasion event, or a pest outbreak, is an extremely challenging operation of major importance for implementing management action toward eradication and/or containment. Fruit flies—FF—(Diptera: Tephritidae) comprise important invasive and quarantine species that threaten the wo...

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Veröffentlicht in:Journal of pest science 2023-03, Vol.96 (2), p.611-622
Hauptverfasser: Diller, Yoshua, Shamsian, Aviv, Shaked, Ben, Altman, Yam, Danziger, Bat-Chen, Manrakhan, Aruna, Serfontein, Leani, Bali, Elma, Wernicke, Matthias, Egartner, Alois, Colacci, Marco, Sciarretta, Andrea, Chechik, Gal, Alchanatis, Victor, Papadopoulos, Nikos T., Nestel, David
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Sprache:eng
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Zusammenfassung:Timely detection of an invasion event, or a pest outbreak, is an extremely challenging operation of major importance for implementing management action toward eradication and/or containment. Fruit flies—FF—(Diptera: Tephritidae) comprise important invasive and quarantine species that threaten the world fruit and vegetables production. The current manuscript introduces a recently developed McPhail-type electronic trap (e-trap) and provides data on its field performance to surveil three major invasive FF ( Ceratitis capitata , Bactrocera dorsalis and B. zonata ). Using FF male lures, the e-trap attracts the flies and retains them on a sticky surface placed in the internal part of the trap. The e-trap captures frames of the trapped adults and automatically uploads the images to the remote server for identification conducted on a novel algorithm involving deep learning. Both the e-trap and the developed code were tested in the field in Greece, Austria, Italy, South Africa and Israel. The FF classification code was initially trained using a machine-learning algorithm and FF images derived from laboratory colonies of two of the species ( C. capitata and B. zonata ). Field tests were then conducted to investigate the electronic, communication and attractive performance of the e-trap, and the model accuracy to classify FFs. Our results demonstrated a relatively good communication, electronic performance and trapping efficacy of the e-trap. The classification model provided average precision results (93–95%) for the three target FFs from images uploaded remotely from e-traps deployed in field conditions. The developed and field tested e-trap system complies with the suggested attributes required for an advanced camera-based smart-trap.
ISSN:1612-4758
1612-4766
DOI:10.1007/s10340-022-01528-x