Towards life cycle identification of malaria parasites using machine learning and Riemannian geometry
Arash Mehrjou

TL;DR
This paper presents a cost-effective malaria diagnostic system using machine learning and Riemannian geometry, automating parasite detection and life-stage identification to improve accuracy and speed over manual methods.
Contribution
It introduces a novel hardware-software system with a patch-based clustering algorithm and manifold optimization for robust, high-dimensional blood image analysis.
Findings
Higher speed than supervised systems
Accuracy comparable or better than existing methods
Effective across various imaging conditions
Abstract
Malaria is a serious infectious disease that is responsible for over half million deaths yearly worldwide. The major cause of these mortalities is late or inaccurate diagnosis. Manual microscopy is currently considered as the dominant diagnostic method for malaria. However, it is time consuming and prone to human errors. The aim of this paper is to automate the diagnosis process and minimize the human intervention. We have developed the hardware and software for a cost-efficient malaria diagnostic system. This paper describes the manufactured hardware and also proposes novel software to handle parasite detection and life-stage identification. A motorized microscope is developed to take images from Giemsa-stained blood smears. A patch-based unsupervised statistical clustering algorithm is proposed which offers a novel method for classification of different regions within blood images.…
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Taxonomy
TopicsDigital Imaging for Blood Diseases · Image Processing Techniques and Applications · Identification and Quantification in Food
MethodsSPEED: Separable Pyramidal Pooling EncodEr-Decoder for Real-Time Monocular Depth Estimation on Low-Resource Settings
