Abstract

Malaria is a life-threatening disease that is spread by the Plasmodium parasites. It is detected by trained microscopists who analyze microscopic blood smear images. Modern deep learning techniques may be used to do this analysis automatically. The need for the trained personnel can be greatly reduced with the development of an automatic accurate and efficient model. In this article, we propose an entirely automated Convolutional Neural Network (CNN) based model for the diagnosis of malaria from the microscopic blood smear images. A variety of techniques including knowledge distillation, data augmentation, Autoencoder, feature extraction by a CNN model and classified by Support Vector Machine (SVM) or K-Nearest Neighbors (KNN) are performed under three training procedures named general training, distillation training and autoencoder training to optimize and improve the model accuracy and inference performance. Our deep learning-based model can detect malarial parasites from microscopic images with an accuracy of 99.23% while requiring just over 4600 floating point operations. For practical validation of model efficiency, we have deployed the miniaturized model in different mobile phones and a server-backed web application. Data gathered from these environments show that the model can be used to perform inference under 1 s per sample in both offline (mobile only) and online (web application) mode, thus engendering confidence that such models may be deployed for efficient practical inferential systems.

Highlights

  • Malaria, a life life-threatening disease caused by Plasmodium parasites, is still a severe health concern in large parts of the world especially the third world countries

  • Automatic microscopic malaria parasite detection, which involves the acquisition of the microscopic blood smear image, segmentation of the cells and classification of the infected cells, can be an effective diagnostic tool [26]

  • This paper presents multiple classification models for malaria parasite detection which take into consideration classification accuracy and aim to be computationally efficient

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Summary

Introduction

A life life-threatening disease caused by Plasmodium parasites, is still a severe health concern in large parts of the world especially the third world countries. Automatic microscopic malaria parasite detection, which involves the acquisition of the microscopic blood smear image (for example by smartphone as demonstrated in [24,25]), segmentation of the cells and classification of the infected cells, can be an effective diagnostic tool [26]. In this study we trained multiple accurate and computationally efficient models for malaria parasite detection in single cells using a publicly available malaria dataset [24]. Unlike previous works carried out for malaria parasite detection, our trained models are highly accurate (99.23%) and the order of magnitude is more computationally efficient (4600 flops only) compared to previously published work [40]. It is conceivable that these contributions can play a significant role towards building a fully automated system for malaria parasite detection in the future

Relevant Work
Methodology
Data-Set
Data Preprocessing
Proposed Model Architecture
Training Details
General Training
Distillation Training
Autoencoder Training
Result
Method
Model Deployment
Mobile Based Application
Web Based Application
Findings
Discussion
Conclusions and Future Work
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