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Visualizing Efficacy of Pesticides Against Disease Vector Mosquitoes in the Field
Published on: March 16, 2019
Evaluating AI-based mosquito monitoring technologies: a field study in Zhejiang Province, 2025
Jinna Wang1, Kexin Wang2, Mingyu Luo1
1Zhejiang Provincial Center for Disease Control and Prevention, Hangzhou, China.
Objectives:
This study aimed to assess the effectiveness of intelligent mosquito surveillance devices implemented in Zhejiang Province and to compare these metrics with those obtained from traditional surveillance methods.
Methods:
Intelligent surveillance devices, light traps, and BG-traps were operated concurrently at the same locations. Statistical comparisons were conducted using one-way ANOVA with Dunnett's T3 tests, while the Dynamic Time Warping algorithm was employed to evaluate similarities in density trends.
Results:
A total of 278 trap-nights using light traps and 278 trap-hours of BG-traps captured 11,349 and 1,524 mosquitoes, respectively, yielding mean densities of 14.56 mosquitoes/(trap·night) and 6.34 mosquitoes/(trap-hour). Additionally, 991 and 646 trap-days of Chengwen Jingling traps and CAMMADE traps recorded 12,003 and 1,180 mosquitoes, respectively, based on backend data, with mean densities of 5.62 mosquitoes/(trap-day) and 1.83 mosquitoes/(trap-day). The light trap produced significantly higher mosquito densities than all other methods (P < 0.05), while the BG-trap exhibited comparable densities to Chengwen Jingling traps (P > 0.05) but significantly outperformed the CAMMADE trap (P < 0.05). During the same time window on the same day, the trapping efficacy of the BG-trap was significantly higher than that of the Chengwen Jingling Trap (P < 0.05), while no significant difference was observed between the light trap and the Chengwen Jingling Trap (P > 0.05). Temporal pattern analysis further revealed consistent trends among the Chengwen Jingling, light trap, and BG-trap methods. The Chengwen Jingling trap exhibited relative error rates (RE) of 25.67% for density estimation, 64.29% for Culex genus identification, and 179.20% for Aedes genus identification. The CAMMADE trap demonstrated RE of 105.34% for density estimation, along with 15.99% for Culex and 34.69% for Aedes at the genus level. For female mosquito identification, Chengwen Jingling achieved RE of 21.54% for Culex and 76.72% for Aedes, while CAMMADE showed rates of 102.99% for Culex and 153.85% for Aedes.
Conclusions:
AI-based mosquito monitoring technologies exhibit significant potential for advancing vector surveillance; however, current technical limitations in trapping efficacy and algorithm accuracy necessitate a hybrid approach integrating AI with conventional methods in the near term, rather than a full replacement.
