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纹理分析作为一种预测方法在 CT 引导下经皮肺穿刺细胞学标本肺癌评估中的应用。

The texture analysis as a predictive method in the assessment of the cytological specimen of CT-guided FNAC of the lung cancer.

机构信息

Department of Precision Medicine, University of Campania "L. Vanvitelli", 80138, Naples, Italy.

Department of Mental and Phisic Health and University of Campania, Naples, Italy.

出版信息

Med Oncol. 2020 May 18;37(6):54. doi: 10.1007/s12032-020-01375-9.

DOI:10.1007/s12032-020-01375-9
PMID:32424733
Abstract

The lung cancer is the principle cause of the worldwide deaths and its prognosis is poor with a 5-year overall survival rate. Computed tomography (CT) gives many information about the prognosis, but the problem is the subject interpretation of the findings. Thanks to the computer-aided diagnosis/detection (CAD), it is possible to reduce the second opinion. "Radiomics" is an extension of CAD and overlaps the quantitative imaging data of the CT texture analysis (CTTA) with the clinical information, increasing the power and precision of the decision going through the personalized medicine. The aim of this study is to describe the role of the radiomics in the characterization of the pulmonary nodule. For this study, we retrospectively analyzed the images of the 87 NSCLC patients with a waiver of informed consent from the Institutional Review Board (IRB) at the Campania University "Luigi Vanvitelli" of Naples. All tumors were semiautomatically segmented by a radiologist with 10 years of experience using three diameters (AW Server 3.2). The examinations were acquired using 128 MDCT (GSI CT, GE) with a peak tube voltage of 120 kVp, tube current of 100 or 200 mA, and rotation times of 0.5 or 0.8 s. To confirm the imaging results, the FNAC was performed and for every nodule the following parameters were extracted: the presence of the solid component (named = 1), papillary component (named = 2), and mixed component (named = 3). Feature calculation was performed using the HealthMyne software and Integrated Platform That Enables Better Patient Management Decisions For Oncology. The radiologist uses the Rapid Precise Metrics (RPM)™ functionality to identify a lesion with the algorithm and these methods are put to work. The correlation between each feature and the tumor volume was calculated using a two-step cluster statistical analysis. In this retrospective study, in one year from 2018 to 2019 20 patients with lung adenocarcinoma confirmed with FNAC were enrolled. The pathologic results were subdivided into three categories: the solid architecture (group 1), papillary architecture (group 2), and mixed architecture (group 3). Nine lesions resulted with component 1, seven patients with component 2, and 3 patients with component 3. Eight females and 12 males with a median age 61 and 15 years (mean ± SD = 67.4 ± 9.7 years, range 39-73 years) were enrolled. The two results suggest, with p < 0.05, that the GGO variable is a good discriminating estimator of the kurtosis variable: GGO = "no" implies a high kurtosis value, while GGO = "yes" implies a low value. The numerous data obtained from the automatic analysis allow to have a fertile ground on which to develop a new concept of medicine which is precision medicine. The limit of this study is the poor sample. In the future, in order to have a more mature and consolidated discipline, it is necessary to increase the large scale of observations with further studies to establish the rigorous evaluation criteria. In order for radiomics to mature as a discipline in the future, it will be necessary to develop studies that consolidate its role to standardize the collected data.

摘要

肺癌是全球死亡的主要原因,其预后较差,总 5 年生存率为 1%。计算机断层扫描(CT)提供了许多关于预后的信息,但问题是对这些发现的主观解释。由于计算机辅助诊断/检测(CAD)的存在,减少了二次意见的必要性。“放射组学”是 CAD 的延伸,它将 CT 纹理分析(CTTA)的定量成像数据与临床信息相结合,通过个性化医疗提高决策的准确性和精度。本研究旨在描述放射组学在肺结节特征描述中的作用。为此,我们对来自那不勒斯坎帕尼亚大学“路易吉·万维泰利”的 87 名非小细胞肺癌患者的图像进行了回顾性分析,该研究得到了机构审查委员会(IRB)的豁免同意。所有肿瘤均由具有 10 年经验的放射科医生使用三个直径(AW Server 3.2)半自动分割。使用 128 MDCT(GSI CT、GE)进行检查,峰值管电压为 120 kVp,管电流为 100 或 200 mA,旋转时间为 0.5 或 0.8 s。为了确认成像结果,对细针抽吸活检(FNAC)进行了检查,对于每个结节提取了以下参数:实性成分的存在(命名为 1)、乳头状成分(命名为 2)和混合成分(命名为 3)。使用 HealthMyne 软件和集成平台来进行特征计算,这些平台可更好地管理肿瘤患者的决策。放射科医生使用 Rapid Precise Metrics(RPM)™功能通过算法识别病变,然后使用这些方法进行工作。使用两步聚类统计分析计算每个特征与肿瘤体积之间的相关性。在这项回顾性研究中,在 2018 年至 2019 年的一年中,纳入了 20 名经 FNAC 证实的肺腺癌患者。病理结果分为三组:实性结构(组 1)、乳头状结构(组 2)和混合结构(组 3)。9 个病变为成分 1,7 个患者为成分 2,3 个患者为成分 3。8 名女性和 12 名男性,中位年龄为 61 岁和 15 岁(平均±标准差=67.4±9.7 岁,范围 39-73 岁)。这两个结果表明(p<0.05),GGO 变量是峰度变量的良好判别估计量:GGO=“否”表示峰度值较高,而 GGO=“是”表示峰度值较低。从自动分析中获得的大量数据为开发新的精准医学概念提供了肥沃的土壤。本研究的局限性在于样本量少。未来,为了拥有更成熟和完善的学科,有必要通过进一步的研究增加大样本观察,以建立严格的评估标准。为了使放射组学在未来成熟为一门学科,有必要开展研究来巩固其作用,以规范所收集的数据。

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