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Computer-Aided Diagnostics of Heart Disease Risk Prediction Using Boosting Support Vector Machine
Ebenezer Owusu1, Prince Boakye-Sekyerehene1, Justice Kwame Appati1
1Department of Computer Science, University of Ghana, Legon, Accra, Ghana.
Insights
Early detection of heart disease is crucial. A new boosting Support Vector Machine (SVM) method accurately predicts heart disease risk, outperforming other machine learning techniques for better patient outcomes.
Area of Science:
- Cardiology
- Machine Learning
- Medical Informatics
Background:
- Heart disease is a major global cause of mortality, necessitating advancements in early detection.
- Accurate risk stratification is vital for timely intervention and improved patient prognosis.
Purpose of the Study:
- To develop and evaluate a boosting Support Vector Machine (SVM) model for enhanced heart disease risk prediction.
- To compare the performance of the proposed model against other established machine learning algorithms.
Main Methods:
- Utilized a Cleveland clinic dataset with 13 attributes and 303 records, with missing values handled via listwise deletion.
- Employed feature selection using a boosting technique to enhance model efficiency and accuracy.
- Implemented a train/test split for data partitioning, followed by SVM model training and evaluation with a linear kernel and C=0.05.
Main Results:
- The boosting SVM model demonstrated superior performance compared to Logistic Regression, Nave Bayes, Decision Trees, Multilayer Perceptron, and Random Forest.
- Feature selection via boosting improved model accuracy and reduced computational time.
Conclusions:
- The proposed boosting SVM approach offers a more accurate and efficient tool for computer-aided diagnosis of heart disease risk.
- This method holds significant potential for improving early detection and management strategies for cardiovascular conditions.
Abstract:
Heart diseases are a leading cause of death worldwide, and they have sparked a lot of interest in the scientific community. Because of the high number of impulsive deaths associated with it, early detection is critical. This study proposes a boosting Support Vector Machine (SVM) technique as the backbone of computer-aided diagnostic tools for more accurately forecasting heart disease risk levels. The datasets which contain 13 attributes such as gender, age, blood pressure, and chest pain are taken from the Cleveland clinic. In total, there were 303 records with 6 tuples having missing values. To clean the data, we deleted the 6 missing records through the listwise technique. The size of data, and the fact that it is a purely random subset, made this approach have no significant effect for the experiment because there were no biases. Salient features are selected using the boosting technique to speed up and improve accuracies. Using the train/test split approach, the data is then partitioned into training and testing. SVM is then used to train and test the data. The C parameter is set at 0.05 and the linear kernel function is used. Logistic regression, Nave Bayes, decision trees, Multilayer Perceptron, and random forest were used to compare the results. The proposed boosting SVM performed exceptionally well, making it a better tool than the existing techniques.
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