Enhancing the differential diagnosis of small pulmonary nodules: a comprehensive model integrating plasma methylation, protein biomarkers, and LDCT imaging features.

IF 5.3 2区 材料科学 Q2 MATERIALS SCIENCE, MULTIDISCIPLINARY
Meng Yang, Huansha Yu, Hongxiang Feng, Jianghui Duan, Kaige Wang, Bing Tong, Yunzhi Zhang, Wei Li, Ye Wang, Chaoyang Liang, Hongliang Sun, Dingrong Zhong, Bei Wang, Huang Chen, Chengxiang Gong, Qiye He, Zhixi Su, Rui Liu, Peng Zhang
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引用次数: 0

Abstract

Background: Accurate differentiation between malignant and benign pulmonary nodules, especially those measuring 5-10 mm in diameter, continues to pose a significant diagnostic challenge. This study introduces a novel, precise approach by integrating circulating cell-free DNA (cfDNA) methylation patterns, protein profiling, and computed tomography (CT) imaging features to enhance the classification of pulmonary nodules.

Methods: Blood samples were collected from 419 participants diagnosed with pulmonary nodules ranging from 5 to 30 mm in size, before any disease-altering procedures such as treatment or surgical intervention. High-throughput bisulfite sequencing was used to conduct DNA methylation profiling, while protein profiling was performed utilizing the Olink proximity extension assay. The dataset was divided into a training set and an independent test set. The training set included 162 matched cases of benign and malignant nodules, balanced for sex and age. In contrast, the test set consisted of 46 benign and 49 malignant nodules. By effectively integrating both molecular (DNA methylation and protein profiling) and CT imaging parameters, a sophisticated deep learning-based classifier was developed to accurately distinguish between benign and malignant pulmonary nodules.

Results: Our results demonstrate that the integrated model is both accurate and robust in distinguishing between benign and malignant pulmonary nodules. It achieved an AUC score 0.925 (sensitivity = 83.7%, specificity = 82.6%) in classifying test set. The performance of the integrated model was significantly higher than that of individual methylation (AUC = 0.799, P = 0.004), protein (AUC = 0.846, P = 0.009), and imaging models (AUC = 0.866, P = 0.01). Importantly, the integrated model achieved a higher AUC of 0.951 (sensitivity = 83.9%, specificity = 89.7%) in 5-10 mm small nodules. These results collectively confirm the accuracy and robustness of our model in detecting malignant nodules from benign ones.

Conclusions: Our study presents a promising noninvasive approach to distinguish the malignancy of pulmonary nodules using multiple molecular and imaging features, which has the potential to assist in clinical decision-making.

Trial registration: This study was registered on ClinicalTrials.gov on 01/01/2020 (NCT05432128). https://classic.

Clinicaltrials: gov/ct2/show/NCT05432128 .

加强肺小结节的鉴别诊断:整合血浆甲基化、蛋白质生物标记物和 LDCT 成像特征的综合模型。
背景:准确区分恶性和良性肺结节,尤其是直径 5-10 毫米的肺结节,仍然是一项重大的诊断挑战。本研究通过整合循环无细胞 DNA(cfDNA)甲基化模式、蛋白质分析和计算机断层扫描(CT)成像特征,引入了一种新颖、精确的方法,以加强肺结节的分类:方法:在治疗或手术干预等任何改变疾病的过程之前,采集了419名确诊肺结节患者的血液样本,结节大小从5毫米到30毫米不等。采用高通量亚硫酸氢盐测序法进行DNA甲基化分析,同时利用Olink近距离延伸测定法进行蛋白质分析。数据集分为训练集和独立测试集。训练集包括 162 个良性和恶性结节的匹配病例,性别和年龄均衡。而测试集包括 46 个良性结节和 49 个恶性结节。通过有效整合分子(DNA 甲基化和蛋白质分析)和 CT 成像参数,我们开发出了一种基于深度学习的复杂分类器,可准确区分良性和恶性肺结节:结果:我们的研究结果表明,综合模型在区分良性和恶性肺结节方面既准确又稳健。在对测试集进行分类时,其 AUC 得分为 0.925(灵敏度 = 83.7%,特异度 = 82.6%)。综合模型的性能明显高于单个甲基化模型(AUC = 0.799,P = 0.004)、蛋白质模型(AUC = 0.846,P = 0.009)和成像模型(AUC = 0.866,P = 0.01)。重要的是,在 5-10 毫米的小结节中,综合模型的 AUC 达到了更高的 0.951(灵敏度 = 83.9%,特异性 = 89.7%)。这些结果共同证实了我们的模型在从良性结节中检测出恶性结节方面的准确性和稳健性:我们的研究提出了一种利用多种分子和成像特征区分肺结节恶性程度的无创方法,该方法有望协助临床决策:本研究于2020年1月1日在ClinicalTrials.gov上注册(NCT05432128)。https://classic.Clinicaltrials:gov/ct2/show/NCT05432128 。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
CiteScore
8.30
自引率
3.40%
发文量
1601
期刊介绍: ACS Applied Nano Materials is an interdisciplinary journal publishing original research covering all aspects of engineering, chemistry, physics and biology relevant to applications of nanomaterials. The journal is devoted to reports of new and original experimental and theoretical research of an applied nature that integrate knowledge in the areas of materials, engineering, physics, bioscience, and chemistry into important applications of nanomaterials.
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