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iMAGING: a novel automated system for malaria diagnosis by using artificial intelligence tools and a universal low-cost robotized microscope
被引:7
作者:
Maturana, Carles Rubio
[1
,2
]
de Oliveira, Allisson Dantas
[3
]
Nadal, Sergi
[4
]
Serrat, Francesc Zarzuela
[1
]
Sulleiro, Elena
[1
,2
,5
]
Ruiz, Edurne
[1
]
Bilalli, Besim
[4
]
Veiga, Anna
[6
]
Espasa, Mateu
[2
,7
]
Abello, Alberto
[4
]
Sune, Tomas Pumarola
[1
,2
]
Segu, Marta
[8
]
Lopez-Codina, Daniel
[3
]
Clols, Elisa Sayrol
[9
]
Joseph-Munne, Joan
[1
]
机构:
[1] Vall dHebron Univ Hosp, Vall dHebron Res Inst VHIR, Microbiol Dept, Barcelona, Spain
[2] Univ Autonoma Barcelona UAB, Dept Genet & Microbiol, Barcelona, Spain
[3] Univ Politecn Catalunya UPC, Phys Dept, Computat Biol & Complex Syst Grp, Castelldefels, Spain
[4] Univ Politecn Cataluna UPC, Serv & Informat Syst Engn Dept, Database Technol & Informat Grp, Barcelona, Spain
[5] Inst Salud Carlos III, CIBERINFEC, ISCIII CIBER Enfermedades Infecciosas, Madrid, Spain
[6] Probitas Fdn, Barcelona, Spain
[7] Hosp Univ Parc Tauli, Microbiol Dept, Clin Labs, Sabadell, Spain
[8] Futbol Club Barcelona Fdn, Barcelona, Spain
[9] Univ Pompeu Fabra, TecnoCampus, Mataro, Spain
关键词:
malaria;
malaria diagnosis;
convolutional neural networks;
artificial intelligence;
robotized microscope;
smartphone application;
YOLOv5;
thick blood smears;
PERFORMANCE;
D O I:
10.3389/fmicb.2023.1240936
中图分类号:
Q93 [微生物学];
学科分类号:
071005 ;
100705 ;
摘要:
Introduction: Malaria is one of the most prevalent infectious diseases in sub-Saharan Africa, with 247 million cases reported worldwide in 2021 according to the World Health Organization. Optical microscopy remains the gold standard technique for malaria diagnosis, however, it requires expertise, is time-consuming and difficult to reproduce. Therefore, new diagnostic techniques based on digital image analysis using artificial intelligence tools can improve diagnosis and help automate it.Methods: In this study, a dataset of 2571 labeled thick blood smear images were created. YOLOv5x, Faster R-CNN, SSD, and RetinaNet object detection neural networks were trained on the same dataset to evaluate their performance in Plasmodium parasite detection. Attention modules were applied and compared with YOLOv5x results. To automate the entire diagnostic process, a prototype of 3D-printed pieces was designed for the robotization of conventional optical microscopy, capable of auto-focusing the sample and tracking the entire slide.Results: Comparative analysis yielded a performance for YOLOv5x on a test set of 92.10% precision, 93.50% recall, 92.79% F-score, and 94.40% mAP0.5 for leukocyte, early and mature Plasmodium trophozoites overall detection. F-score values of each category were 99.0% for leukocytes, 88.6% for early trophozoites and 87.3% for mature trophozoites detection. Attention modules performance show non-significant statistical differences when compared to YOLOv5x original trained model. The predictive models were integrated into a smartphone-computer application for the purpose of image-based diagnostics in the laboratory. The system can perform a fully automated diagnosis by the auto-focus and X-Y movements of the robotized microscope, the CNN models trained for digital image analysis, and the smartphone device. The new prototype would determine whether a Giemsa-stained thick blood smear sample is positive/negative for Plasmodium infection and its parasite levels. The whole system was integrated into the iMAGING smartphone application.Conclusion: The coalescence of the fully-automated system via auto-focus and slide movements and the autonomous detection of Plasmodium parasites in digital images with a smartphone software and AI algorithms confers the prototype the optimal features to join the global effort against malaria, neglected tropical diseases and other infectious diseases.
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