Optimized CNN Architecture Using Bio-Inspired and Computing for Lung Cancer Detection in Infrared Images

Lung cancer is arguably the most rampant cancer that causes deaths across the globe, and early diagnosis is a key factor in elevating survival. This work introduces an improved design of CNN and other five bio-inspired computational algorithms: AGO, SDFS, BSGB, DRS, and HEL. These midlevels were designed and optimized for the true detection of lung cancer in infrared images with a high degree of accuracy of 97% for differentiating between malignant and benign diseases. Our system synthesizes pattern recognition with decision support using heterogeneous data including CT scans, chest X-rays, and patient clinical history, enabling quick and accurate diagnoses. The design of such a system may well transform the global health field through improved early detection rates, decreased diagnostic costs, and prompt treatments. The discovery leads not only to arming clinicians with decision-making tools but also to creating the potential for AI-based cancer treatment and prevention to save millions of people's lives around the globe.

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Publication Details

Published
2025-06-05
DOI
https://doi.org/10.1109/icetea64585.2025.11099639
Primary Topic
Brain Tumor Detection and Classification
Type
article
Field-Weighted Citation Impact
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article

Optimized CNN Architecture Using Bio-Inspired and Computing for Lung Cancer Detection in Infrared Images

Geetha M, Rosario Gilmary, M Mathan
Brain Tumor Detection and Classification
article

Optimized CNN Architecture Using Bio-Inspired and Computing for Lung Cancer Detection in Infrared Images

Geetha M, Rosario Gilmary, M Mathan
article en

Abstract

Lung cancer is arguably the most rampant cancer that causes deaths across the globe, and early diagnosis is a key factor in elevating survival. This work introduces an improved design of CNN and other five bio-inspired computational algorithms: AGO, SDFS, BSGB, DRS, and HEL. These midlevels were designed and optimized for the true detection of lung cancer in infrared images with a high degree of accuracy of 97% for differentiating between malignant and benign diseases. Our system synthesizes pattern recognition with decision support using heterogeneous data including CT scans, chest X-rays, and patient clinical history, enabling quick and accurate diagnoses. The design of such a system may well transform the global health field through improved early detection rates, decreased diagnostic costs, and prompt treatments. The discovery leads not only to arming clinicians with decision-making tools but also to creating the potential for AI-based cancer treatment and prevention to save millions of people's lives around the globe.

IFMR Graduate School of Business (IN)
Good health and well-being
Openalex Percentile: Top 74%
Brain Tumor Detection and Classification
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