Noninvasive prediction of lymph node metastasis in pancreatic cancer using an ultrasound-based clinicoradiomics machine learning model.

IF 2.9 4区 医学 Q3 ENGINEERING, BIOMEDICAL
Dong-Yue Wen, Jia-Min Chen, Zhi-Ping Tang, Jin-Shu Pang, Qiong Qin, Lu Zhang, Yun He, Hong Yang
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引用次数: 0

Abstract

Objectives: This study was designed to explore and validate the value of different machine learning models based on ultrasound image-omics features in the preoperative diagnosis of lymph node metastasis in pancreatic cancer (PC).

Methods: This research involved 189 individuals diagnosed with PC confirmed by surgical pathology (training cohort: n = 151; test cohort: n = 38), including 50 cases of lymph node metastasis. Image-omics features were extracted from ultrasound images. After dimensionality reduction and screening, eight machine learning algorithms, including logistic regression (LR), support vector machine (SVM), K-nearest neighbors (KNN), random forest (RF), extra trees (ET), extreme gradient boosting (XGBoost), light gradient boosting machine (LightGBM), and multilayer perceptron (MLP), were used to establish image-omics models to predict lymph node metastasis in PC. The best omics prediction model was selected through ROC curve analysis. Machine learning models were used to analyze clinical features and determine variables to establish a clinical model. A combined model was constructed by combining ultrasound image-omics and clinical features. Decision curve analysis (DCA) and a nomogram were used to evaluate the clinical application value of the model.

Results: A total of 1561 image-omics features were extracted from ultrasound images. 15 valuable image-omics features were determined by regularization, dimension reduction, and algorithm selection. In the image-omics model, the LR model showed higher prediction efficiency and robustness, with an area under the ROC curve (AUC) of 0.773 in the training set and an AUC of 0.850 in the test set. The clinical model constructed by the boundary of lesions in ultrasound images and the clinical feature CA199 (AUC = 0.875). The combined model had the best prediction performance, with an AUC of 0.872 in the training set and 0.918 in the test set. The combined model showed better clinical benefit according to DCA, and the nomogram score provided clinical prediction solutions.

Conclusion: The combined model established with clinical features has good diagnostic ability and can be used to predict lymph node metastasis in patients with PC. It is expected to provide an effective noninvasive method for clinical decision-making, thereby improving the diagnosis and treatment of PC.

利用超声临床放射组学机器学习模型对胰腺癌淋巴结转移进行无创预测
研究目的本研究旨在探索和验证基于超声图像组学特征的不同机器学习模型在胰腺癌(PC)淋巴结转移术前诊断中的价值:本研究涉及189例经手术病理确诊的PC患者(训练队列:n = 151;测试队列:n = 38),其中包括50例淋巴结转移病例。从超声图像中提取图像组学特征。经过降维和筛选后,使用八种机器学习算法,包括逻辑回归(LR)、支持向量机(SVM)、K-近邻(KNN)、随机森林(RF)、额外树(ET)、极梯度提升(XGBoost)、轻梯度提升机(LightGBM)和多层感知器(MLP),建立图像组学模型来预测PC淋巴结转移。通过ROC曲线分析,选出了最佳的组学预测模型。机器学习模型用于分析临床特征,确定建立临床模型的变量。结合超声图像组学和临床特征,建立了一个综合模型。利用决策曲线分析(DCA)和提名图评估模型的临床应用价值:结果:共从超声图像中提取了 1561 个图像组学特征。通过正则化、降维和算法选择,确定了 15 个有价值的图像组学特征。在图像组学模型中,LR 模型表现出更高的预测效率和鲁棒性,训练集的 ROC 曲线下面积(AUC)为 0.773,测试集的 ROC 曲线下面积(AUC)为 0.850。由超声图像中的病灶边界和临床特征 CA199 构建的临床模型(AUC = 0.875)。组合模型的预测效果最好,训练集的 AUC 为 0.872,测试集的 AUC 为 0.918。根据 DCA,组合模型显示出更好的临床疗效,而提名图评分则提供了临床预测方案:结论:结合临床特征建立的联合模型具有良好的诊断能力,可用于预测 PC 患者的淋巴结转移。结论:结合临床特征建立的联合模型具有良好的诊断能力,可用于预测 PC 患者的淋巴结转移,有望为临床决策提供一种有效的无创方法,从而改善 PC 的诊断和治疗。
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来源期刊
BioMedical Engineering OnLine
BioMedical Engineering OnLine 工程技术-工程:生物医学
CiteScore
6.70
自引率
2.60%
发文量
79
审稿时长
1 months
期刊介绍: BioMedical Engineering OnLine is an open access, peer-reviewed journal that is dedicated to publishing research in all areas of biomedical engineering. BioMedical Engineering OnLine is aimed at readers and authors throughout the world, with an interest in using tools of the physical and data sciences and techniques in engineering to understand and solve problems in the biological and medical sciences. Topical areas include, but are not limited to: Bioinformatics- Bioinstrumentation- Biomechanics- Biomedical Devices & Instrumentation- Biomedical Signal Processing- Healthcare Information Systems- Human Dynamics- Neural Engineering- Rehabilitation Engineering- Biomaterials- Biomedical Imaging & Image Processing- BioMEMS and On-Chip Devices- Bio-Micro/Nano Technologies- Biomolecular Engineering- Biosensors- Cardiovascular Systems Engineering- Cellular Engineering- Clinical Engineering- Computational Biology- Drug Delivery Technologies- Modeling Methodologies- Nanomaterials and Nanotechnology in Biomedicine- Respiratory Systems Engineering- Robotics in Medicine- Systems and Synthetic Biology- Systems Biology- Telemedicine/Smartphone Applications in Medicine- Therapeutic Systems, Devices and Technologies- Tissue Engineering
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