论文标题
在步态期间使用生物力学信号评估糖尿病感觉多神经病严重性分类的机器学习模型的性能
Evaluating Performance of Machine Learning Models for Diabetic Sensorimotor Polyneuropathy Severity Classification using Biomechanical Signals during Gait
论文作者
论文摘要
糖尿病感官多神经病(DSPN)是受糖尿病患者影响的神经病的普遍形式之一,涉及人类步态生物力学变化的改变。在文献中,在过去的50年中,研究人员试图通过研究肌肉肌电图(EMG)和地面反作用力(GRF)来观察DSPN引起的生物力学变化。但是,文学是矛盾的。在这种情况下,我们建议使用机器学习技术通过使用EMG和GRF数据来识别DSPN患者。我们已经收集了一个数据集由三个下肢肌肉EMG(胫骨前(TA),大股外侧(VL),胃nius膜中元(GM)和3维GRF组件(GRFX,GRFX,GRFY和GRFY和GRFZ)。信号中的功能清单是使用救济功能排名的排名,而高度相关的功能已培训了不同的ML模型。在训练中进行了优化,我们在GLF分析中使用了92.89%的最佳精度,用于GL,VL,VL和TA肌肉的合并。严重性分类,用于生物力学数据。
Diabetic sensorimotor polyneuropathy (DSPN) is one of the prevalent forms of neuropathy affected by diabetic patients that involves alterations in biomechanical changes in human gait. In literature, for the last 50 years, researchers are trying to observe the biomechanical changes due to DSPN by studying muscle electromyography (EMG), and ground reaction forces (GRF). However, the literature is contradictory. In such a scenario, we are proposing to use Machine learning techniques to identify DSPN patients by using EMG, and GRF data. We have collected a dataset consists of three lower limb muscles EMG (tibialis anterior (TA), vastus lateralis (VL), gastrocnemius medialis (GM) and 3-dimensional GRF components (GRFx, GRFy, and GRFz). Raw EMG and GRF signals were preprocessed, and a newly proposed feature extraction technique scheme from literature was applied to extract the best features from the signals. The extracted feature list was ranked using Relief feature ranking techniques, and highly correlated features were removed. We have trained different ML models to find out the best-performing model and optimized that model. We trained the optimized ML models for different combinations of muscles and GRF components features, and the performance matrix was evaluated. This study has found ensemble classifier model was performing in identifying DSPN Severity, and we optimized it before training. For EMG analysis, we have found the best accuracy of 92.89% using the Top 14 features for features from GL, VL and TA muscles combined. In the GRF analysis, the model showed 94.78% accuracy by using the Top 15 features for the feature combinations extracted from GRFx, GRFy and GRFz signals. The performance of ML-based DSPN severity classification models, improved significantly, indicating their reliability in DSPN severity classification, for biomechanical data.