Statistical Analysis and Deep Learning Associated Modeling for Early stage Detection of Carinoma

Main Article Content

K. Rangaswamy
D. Dhanya
B. Rupa Devi
Sateesh Kumar Reddy C
R. Obulakonda Reddy

Abstract

The high death rate and overall complexity of the cancer epidemic is a global health crisis. Progress in cancer prediction based on gene expression has increased in light of the speedy advancement using modern high-throughput sequencing methods and a wide range of machine learning techniques, bringing insights into efficient and precise treatment decision-making. Therefore, it is of significant interest to create machine learning systems that accurately identify cancer patients and healthy people. Although several classification systems have been applied to cancer prediction, no single strategy has proven superior. This research shows how to apply deep learning to an optimization method that uses numerous machine learning models. Statistical analysis has helped us choose informative genes, and we've been feeding those to five different categorization models. The results from the five different classifiers are ensembled in the next step using a deep learning technique. The three most common types of adenocarcinoma are those of the lungs, stomach, and breasts. The suggested deep learning-based inter-ensembles model was tested with deep learning-based algorithms on Carcinoma data. The results of the tests show that relative to using only one set of classifiers or the simple consensus algorithm, it improves the precision of cancer prognosis in every analyzed carcinoma dataset. The suggested deep learning-based inter-ensemble approach is demonstrated to be reliable and efficient for cancer diagnosis by entirely using diverse classifiers.

Article Details

How to Cite
Rangaswamy, K. ., Dhanya, D. ., Devi, B. R. ., Reddy C, S. K. ., & Reddy, R. O. . (2022). Statistical Analysis and Deep Learning Associated Modeling for Early stage Detection of Carinoma. International Journal on Recent and Innovation Trends in Computing and Communication, 10(2s), 116–126. https://doi.org/10.17762/ijritcc.v10i2s.5918
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