Table 3 Comparison of recent studies on vestibular disorder classification
Study | Objective | Machine Learning Methods | Key Findings | Classification |
|---|---|---|---|---|
Vivar et al. (2021) | Development of Base-ml tool for classifying vestibular disorders | Multiple algorithms including Random Forest and deep learning models | Base-ml achieved accuracy up to 92.5% in classifying vestibular disorders | MD, BPPV, VM, PPPD |
Ahmadi et al. (2020) | Differentiation between central and peripheral vestibular disorders | Linear and non-linear methods including Random Forest and deep learning models | Machine learning outperformed traditional diagnostic scores in acute vestibular syndromes | Stroke, VEST |
Wang et al. (2024) | Differentiation between vestibular migraine and Menière’s disease | Multiple algorithms including AdaBoost and Random Forest | Achieved 85.77–97.81% accuracy in differentiating vestibular migraine and Menière’s disease | MD, VM |
Strobl et al. (2021) | Identification of key variables for classifying vestibular disorders based on patient history | Classification trees for identifying key variables | Key variables identified for distinguishing vestibular disorders with almost 50% accuracy | MD, VM, BPPV, PPPD, vestibular paroxysmia |
Raponi et al. (2024) | Use of AI for enhancing diagnosis and differentiation of vestibular disorders | Machine learning algorithms applied to anamnestic questionnaire data | AI models showed high accuracy in supporting diagnosis and differentiation of vestibular disorders | MD, BPPV, AVD, VM |
This Study | AI-based classifier for 6 common vestibular disorders | CatBoost machine learning model | Achieved overall accuracy of 88.4% | MD, BPPV, VEST, HOD, VM, PPPD |