A COMPREHENSIVE ANALYTICAL METHOD FOR PREDICTING DISEASES THROUGH MACHINE LEARNING APPROACHES

In the area of data mining, supervised machine learning techniques have been a prevalent approach. Recently, a possible use case for these techniques has emerged:disease prediction utilising health data. Early identification of infectious illnesses is thus crucial, and several researchers have created models to identify them early. It requires a lot of conventional clinical studies, which might make predicting the illness more difficult. A thorough analysis of several illness prediction techniques is provided in this work. The present research offers a prediction model that makes use of many information combinations and well-known categorisation techniques. In order to improve the prediction potential of the model, techniques like the Under-Sampling Clustering Over sampling Method (USCOM) address the issue of data imbalance. Adaptive Elephant Herd Optimisation Method (AEHOM) training is used to a multilayeredDeep Convolutional Neural Network (MLDCNN) for the classification job. According to its comprehensive analysis, the proposed Machine Learning-Based Heart Disease Prediction Method (ML-HDPM) has excellent results across many significant assessment variables.The ML-HDPM model performs very well during training, achieving 94.8% precision and 95.5% accuracy. With an accuracy rate of 96.2%, the system's sensitivities (Recall) are very accurate, and its F-score of 91.5% highlights its well-balanced performance. An excellent 89.7% specificity is reported by ML-HDPM, which is significant. The findings demonstrate how ML-HDPM may transform the prediction of heart disease and assist medical practitioners in making precise diagnoses, significantly impacting patient care results.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-12-01
DOI
https://doi.org/10.5281/zenodo.18171104
Primary Topic
Impact of Light on Environment and Health
Type
article
Field-Weighted Citation Impact
0.00
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article

A COMPREHENSIVE ANALYTICAL METHOD FOR PREDICTING DISEASES THROUGH MACHINE LEARNING APPROACHES

J. L. Sanchez-Cuevas1*, L. J. Mona-Peña1, M. P. Piña-Villanueva1, E. Fernandez-Chavez1, A. A. Dominguez-Martinez1, A. Flores-Valdes1, M. Arevalo-Carbajal1, G. J. Pinal-Ramirez1
Zenodo (CERN European Organization for Nuclear Research)
Impact of Light on Environment and Health
article

A COMPREHENSIVE ANALYTICAL METHOD FOR PREDICTING DISEASES THROUGH MACHINE LEARNING APPROACHES

J. L. Sanchez-Cuevas1*, L. J. Mona-Peña1, M. P. Piña-Villanueva1, E. Fernandez-Chavez1, A. A. Dominguez-Martinez1, A. Flores-Valdes1, M. Arevalo-Carbajal1, G. J. Pinal-Ramirez1
article en

Abstract

In the area of data mining, supervised machine learning techniques have been a prevalent approach. Recently, a possible use case for these techniques has emerged:disease prediction utilising health data. Early identification of infectious illnesses is thus crucial, and several researchers have created models to identify them early. It requires a lot of conventional clinical studies, which might make predicting the illness more difficult. A thorough analysis of several illness prediction techniques is provided in this work. The present research offers a prediction model that makes use of many information combinations and well-known categorisation techniques. In order to improve the prediction potential of the model, techniques like the Under-Sampling Clustering Over sampling Method (USCOM) address the issue of data imbalance. Adaptive Elephant Herd Optimisation Method (AEHOM) training is used to a multilayeredDeep Convolutional Neural Network (MLDCNN) for the classification job. According to its comprehensive analysis, the proposed Machine Learning-Based Heart Disease Prediction Method (ML-HDPM) has excellent results across many significant assessment variables.The ML-HDPM model performs very well during training, achieving 94.8% precision and 95.5% accuracy. With an accuracy rate of 96.2%, the system's sensitivities (Recall) are very accurate, and its F-score of 91.5% highlights its well-balanced performance. An excellent 89.7% specificity is reported by ML-HDPM, which is significant. The findings demonstrate how ML-HDPM may transform the prediction of heart disease and assist medical practitioners in making precise diagnoses, significantly impacting patient care results.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 34%
Impact of Light on Environment and Health
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