利用特征选择和高级统计损失函数进行基于机器学习的猴痘病毒图像预报

Q2 Medicine
Sonam Yadav , Tabish Qidwai
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引用次数: 0

摘要

最近,猴痘病毒因其引发的各种并发症而备受关注。这些并发症包括肺炎、眼疾和继发性皮肤感染。目前的并发症包括直肠肿胀和溃疡,这将导致疼痛或排尿困难。由于这种复杂性,猴痘的检测至关重要。与此同时,随着基于人工智能(AI)方法的发展,现有的研究已尝试更好地检测猴痘和非猴痘。然而,这些研究在准确率方面一直处于落后状态。作为改进,本研究提出了 RN-50-ZCA(残差网络-50-零相分量分析)用于特征提取,以提高分类性能。ZCA-whitening 与 RN-50 配合使用,有助于准确识别与图像病变一致的特征。这种方法结合了数据归一化和随后的线性变换,有助于减小特征之间的共方差。这也保持了具体的方差。为了融合特征,使用了 PCA(主成分分析)。最后,研究提出了基于统计损失函数的 MXGBoost(修正的最高梯度提升),用于对猴痘和非猴痘图像(其他病毒样本、水痘样本和天花样本)进行分类,以获得有效的预测。通过考虑建模问题的某些特征,使用 MXGBoost 和损失函数有助于扩展模型的预测率。有了这些因素,所提出的损失函数可以减少过拟合,从而提高模型的通用性。本研究通过与三项研究的比较对其性能进行了评估,分析结果表明建议的系统具有更高的预测率。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Machine learning-based monkeypox virus image prognosis with feature selection and advanced statistical loss function

Recently, the monkeypox virus has gained paramount attention due to various complications entangled within it. These complications encompass pneumonia, eye problems, and secondary-skin infections. Current complications include swelling and sores within the rectum that would result in pain or complexity while urinating. Due to such complexities, it is crucial for monkeypox detection. Concurrently, with the evolvement of AI (Artificial Intelligence) based methods, existing works have tried to perform better detection of monkeypox and non-monkeypox. Nevertheless, these studies have been lagging in accuracy rate. As an enhancement, this study proposes RN-50-ZCA (Residual Network-50-Zero Phase Component Analysis) for feature extraction to attain enhanced classification performance. ZCA-whitening is utilized with RN-50, which assists in accurately identifying the features that agree with the image lesions. This approach incorporates data normalization and later linear transformation that has been considered to support lessening co-variance among the features. This also maintains the concrete variance. To fuse the features, PCA (Principal Component Analysis) is used. Finally, the research proposes MXGBoost (Modified eXtreme Gradient Boosting) based on statistical loss function for classifying monkeypox and non-monkeypox images (other viral samples, chickenpox samples, and smallpox samples) for acquiring effective prediction. Using MXGBoost with the loss function aids in extemporizing the prediction rate of the model by considering certain features of the issues being modelled. With such factors, the proposed loss function can support diminishing overfitting, thereby improvising the generalizability of the model. The performance of this study is assessed by comparison with three studies, and the analytical results exposed the better prediction rate of the proposed system.

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来源期刊
Medicine in Microecology
Medicine in Microecology Medicine-Gastroenterology
CiteScore
5.60
自引率
0.00%
发文量
16
审稿时长
76 days
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