Ovitrap Monitor - Online application for counting mosquito eggs and visualisation toolbox in support of health services

Hamesse, Charles; Andreo, Verónica; González, Carla Rodríguez; Beumier, Charles; Rubio, Jorge; Porcasi, Ximena; López, Laura; Guzman, Claudio; Haelterman, Rob; Shimoni, Michal; Scavuzzo, Carlos Marcelo

doi:10.1016/j.ecoinf.2023.102105

Cited by 3 publications

(1 citation statement)

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“…Oviposition traps (OVTs) have emerged as a crucial strategic monitoring instrument, owing to their greater sensitivity than that of larval or adult monitoring in Aedes control [ 42 ], and have recently gained widespread recognition for their efficacy in monitoring and reducing Aedes environmental populations [ 43 ]. Various tools have been used to count eggs from data acquired through OVTs [ 21 , 44 ]. However, the number of eggs in each testing data sample was less than 500.…”

Section: Discussionmentioning

confidence: 99%

EggCountAI: a convolutional neural network-based software for counting of Aedes aegypti mosquito eggs

Javed,

López-Denman,

Paradkar

et al. 2023

Parasites Vectors

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Background Mosquito-borne diseases exert a huge impact on both animal and human populations, posing substantial health risks. The behavioural and fitness traits of mosquitoes, such as locomotion and fecundity, are crucial factors that influence the spread of diseases. In existing egg-counting tools, each image requires separate processing with adjustments to various parameters such as intensity threshold and egg area size. Furthermore, accuracy decreases significantly when dealing with clustered or overlapping eggs. To overcome these issues, we have developed EggCountAI, a Mask Region-based Convolutional Neural Network (RCNN)-based free automatic egg-counting tool for Aedes aegypti mosquitoes. Methods The study design involves developing EggCountAI for counting mosquito eggs and comparing its performance with two commonly employed tools—ICount and MECVision—using 10 microscopic and 10 macroscopic images of eggs laid by females on a paper strip. The results were validated through manual egg counting on the strips using ImageJ software. Two different models were trained on macroscopic and microscopic images to enhance egg detection accuracy, achieving mean average precision, mean average recall, and F1-scores of 0.92, 0.90, and 0.91 for the microscopic model, and 0.91, 0.90, and 0.90 for the macroscopic model, respectively. EggCountAI automatically counts eggs in a folder containing egg strip images, offering adaptable filtration for handling impurities of varying sizes. Results The results obtained from EggCountAI highlight its remarkable performance, achieving overall accuracy of 98.88% for micro images and 96.06% for macro images. EggCountAI significantly outperformed ICount and MECVision, with ICount achieving 81.71% accuracy for micro images and 82.22% for macro images, while MECVision achieved 68.01% accuracy for micro images and 51.71% for macro images. EggCountAI also excelled in other statistical parameters, with mean absolute error of 1.90 eggs for micro, 74.30 eggs for macro, and a strong correlation and R-squared value (0.99) for both micro and macro. The superior performance of EggCountAI was most evident when handling overlapping or clustered eggs. Conclusion Accurate detection and counting of mosquito eggs enables the identification of preferred egg-laying sites and facilitates optimal placement of oviposition traps, enhancing targeted vector control efforts and disease transmission prevention. In future research, the tool holds the potential to extend its application to monitor mosquito feeding preferences. Graphical Abstract

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Section: Discussionmentioning

confidence: 99%