Machine Learning with Tunicate Swarm Optimization for Improved Disc Herniation Prediction

A common spinal ailment called disc herniation is the displacement of the spinal discs' inner core as a result of a rupture in their outer covering. The many variables that contribute to disc herniation are examined in this study, including age-related deterioration, genetic predispositions, li...

Full description

Saved in:
Bibliographic Details
Main Authors: Theofilos Gofas, Argyros Maris
Format: Article
Language:English
Published: Bilijipub publisher 2024-06-01
Series:Advances in Engineering and Intelligence Systems
Subjects:
Online Access:https://aeis.bilijipub.com/article_199247_9b5fdad33d29647e7465a31802d476dd.pdf
Tags: Add Tag
No Tags, Be the first to tag this record!
_version_ 1823856422463471616
author Theofilos Gofas
Argyros Maris
author_facet Theofilos Gofas
Argyros Maris
author_sort Theofilos Gofas
collection DOAJ
description A common spinal ailment called disc herniation is the displacement of the spinal discs' inner core as a result of a rupture in their outer covering. The many variables that contribute to disc herniation are examined in this study, including age-related deterioration, genetic predispositions, lifestyle choices, and traumatic experiences. This study highlights the need for accurate prognosis and therapeutic efficacy, and it promotes machine learning (ML) as an essential diagnostic tool. This study employs Extra Tree Classification (ETC), Naïve Bayes Classification (NBC), and Logistic Regression Classification (LRC) to forecast disk herniation. Additionally, Tunicate Swarm Optimization (TSO) is integrated to enhance the accuracy of all three models NBC, ETC, and LRC. To ensure impartiality, unbiased performance assessors are engaged to objectively evaluate the model outcomes. The study's findings showcase the effectiveness of the prediction model for disk herniation. Through hybridization with one optimizer, the three base models yield the following outputs: ETC + TSO (ETTS), NBC + TSO (NBTS), and LRC + TSO (LRTS). In the testing phase, the LRTS model exhibits the utmost performance, attaining an accuracy value of 0.957, while conversely, the NBC model demonstrates the least robust performance, yielding a value of 0.893. These findings unequivocally underscore the superior predictive capability of the LRTS model in forecasting discherniation.
format Article
id doaj-art-55e747966668457885a56bceb08ecd5b
institution Kabale University
issn 2821-0263
language English
publishDate 2024-06-01
publisher Bilijipub publisher
record_format Article
series Advances in Engineering and Intelligence Systems
spelling doaj-art-55e747966668457885a56bceb08ecd5b2025-02-12T08:47:56ZengBilijipub publisherAdvances in Engineering and Intelligence Systems2821-02632024-06-010030212714210.22034/aeis.2024.456009.1192199247Machine Learning with Tunicate Swarm Optimization for Improved Disc Herniation PredictionTheofilos Gofas0Argyros Maris1Department of Mechanical Engineering and Aeronautics, Stochastic Mechanical Systems and Automation Laboratory, University of Patras, Patras, 26504, GreeceDepartment of Communication and Digital Media, University of Western Macedonia, Fourka, Kastoria, 52100, GreeceA common spinal ailment called disc herniation is the displacement of the spinal discs' inner core as a result of a rupture in their outer covering. The many variables that contribute to disc herniation are examined in this study, including age-related deterioration, genetic predispositions, lifestyle choices, and traumatic experiences. This study highlights the need for accurate prognosis and therapeutic efficacy, and it promotes machine learning (ML) as an essential diagnostic tool. This study employs Extra Tree Classification (ETC), Naïve Bayes Classification (NBC), and Logistic Regression Classification (LRC) to forecast disk herniation. Additionally, Tunicate Swarm Optimization (TSO) is integrated to enhance the accuracy of all three models NBC, ETC, and LRC. To ensure impartiality, unbiased performance assessors are engaged to objectively evaluate the model outcomes. The study's findings showcase the effectiveness of the prediction model for disk herniation. Through hybridization with one optimizer, the three base models yield the following outputs: ETC + TSO (ETTS), NBC + TSO (NBTS), and LRC + TSO (LRTS). In the testing phase, the LRTS model exhibits the utmost performance, attaining an accuracy value of 0.957, while conversely, the NBC model demonstrates the least robust performance, yielding a value of 0.893. These findings unequivocally underscore the superior predictive capability of the LRTS model in forecasting discherniation.https://aeis.bilijipub.com/article_199247_9b5fdad33d29647e7465a31802d476dd.pdfdisc herniationmachine learningextra tree classificationnaïve bayes classificationlogistic regression classificationtunicate swarm optimization
spellingShingle Theofilos Gofas
Argyros Maris
Machine Learning with Tunicate Swarm Optimization for Improved Disc Herniation Prediction
Advances in Engineering and Intelligence Systems
disc herniation
machine learning
extra tree classification
naïve bayes classification
logistic regression classification
tunicate swarm optimization
title Machine Learning with Tunicate Swarm Optimization for Improved Disc Herniation Prediction
title_full Machine Learning with Tunicate Swarm Optimization for Improved Disc Herniation Prediction
title_fullStr Machine Learning with Tunicate Swarm Optimization for Improved Disc Herniation Prediction
title_full_unstemmed Machine Learning with Tunicate Swarm Optimization for Improved Disc Herniation Prediction
title_short Machine Learning with Tunicate Swarm Optimization for Improved Disc Herniation Prediction
title_sort machine learning with tunicate swarm optimization for improved disc herniation prediction
topic disc herniation
machine learning
extra tree classification
naïve bayes classification
logistic regression classification
tunicate swarm optimization
url https://aeis.bilijipub.com/article_199247_9b5fdad33d29647e7465a31802d476dd.pdf
work_keys_str_mv AT theofilosgofas machinelearningwithtunicateswarmoptimizationforimproveddischerniationprediction
AT argyrosmaris machinelearningwithtunicateswarmoptimizationforimproveddischerniationprediction