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Journal of Electrical Electronics Engineering(JEEE)

ISSN: 2834-4928 | DOI: 10.33140/JEEE

Impact Factor: 1.2

Spectrozonal/Multispectral Analysis of Ascaris Lumbricoides Based on Coherent and Incoherent Light Sensor LLM Platforms

Abstract

Phillip A. Nasirov and Oleg V. Gradov

As global temperatures rise and ecosystems shift, the geographical range of many parasitic worms may expand, leading to increased risks of transmission to new populations. Microscopic analysis allows scientists to monitor these changes and anticipate potential disease outbreaks, enabling timely interventions to protect public health and agricultural productivity. The implementation of affordable lensless microscopes holds immense importance for parasitological control in African and developing countries. These innovative tools offer a cost-effective solution for conducting microscopic examinations, particularly in resource-limited settings where traditional microscopes may be inaccessible or expensive. Of special significance is the potential of laser-based lensless microscopes to replace confocal microscopy methods for studying both human parasites and parasite eggs found in the natural environment. By utilizing these advanced technologies, researchers and healthcare professionals can enhance their ability to accurately identify and analyze various parasitic organisms, contributing to more effective disease surveillance and control efforts. In African and developing countries where parasitic infections pose significant health challenges, the adoption of lensless microscopes can revolutionize diagnostic capabilities and research outcomes. These portable and easy-to-use devices empower local healthcare workers and scientists to conduct rapid and precise examinations, leading to timely interventions and improved public health outcomes. By leveraging the advantages of lensless microscopes, such as affordability, portability, and versatility, these countries can strengthen their parasitological control strategies and advance towards sustainable healthcare systems. The integration of cutting-edge technology in parasitology not only enhances disease detection and monitoring but also fosters scientific innovation and capacity-building within local communities. By harnessing the potential of these innovative tools, we can revolutionize the way we study and combat parasitic diseases, ultimately improving health outcomes and promoting sustainable development in resource-constrained regions.

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