癌症放射成像和灌注成像自动化框架:肌肉骨骼肿瘤验证。

IF 3.3 Q2 ONCOLOGY JCO Clinical Cancer Informatics Pub Date : 2024-01-01 DOI:10.1200/CCI.23.00118
Elvis Duran Sierra, Raul Valenzuela, Mathew A Canjirathinkal, Colleen M Costelloe, Heerod Moradi, John E Madewell, William A Murphy, Behrang Amini
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引用次数: 0

摘要

目的:商业应用软件的局限性阻碍了稳健且具有成本效益的高通量癌症成像放射组学特征提取和灌注分析工作流程的实施。本研究旨在开发和验证一种癌症研究计算解决方案,该方案使用开源软件进行供应商和序列中立的高通量图像处理和特征提取:癌症放射学和灌注成像(CARPI)自动化框架是一个基于 Python 的软件应用程序,与供应商和序列无关。CARPI使用用户选择的应用程序生成的轮廓文件,并自动执行放射学特征提取和灌注分析。该工作流程解决方案通过两个临床数据集进行了验证,一个数据集包括 40 例骨盆软骨肉瘤和 42 例骶骨脊索瘤,共 82 例患者;另一个数据集包括 26 例未分化多形性肉瘤(UPS)患者在术前治疗期间的多点成像:使用 CARPI 处理了 316 个容积轮廓文件。该应用软件自动从多个磁共振成像序列中提取了 107 个放射学特征,并从时间-强度曲线中提取了 7 个半定量灌注参数。在107个放射学特征中,发现脊索瘤与软骨肉瘤在18个特征上存在统计学差异(P < .00047),其中包括6个一阶特征和12个高阶特征。在放射后的UPS中,反应良好者的表观弥散系数平均值增加了41%(P = .0017),而一阶_10百分位数(P = .0312)在反应良好者和部分/无反应者之间具有统计学意义:对两组临床验证数据的 CARPI 处理证实了该应用软件能够区分不同类型的肿瘤,并有助于根据放射学特征预测患者对治疗的反应。与五种类似开源解决方案的基准比较表明,CARPI在自动灌注特征提取、关系数据库生成和图形报告导出功能方面具有优势,但缺乏用户友好的图形用户界面和预测模型构建功能。
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Cancer Radiomic and Perfusion Imaging Automated Framework: Validation on Musculoskeletal Tumors.

Purpose: Limitations from commercial software applications prevent the implementation of a robust and cost-efficient high-throughput cancer imaging radiomic feature extraction and perfusion analysis workflow. This study aimed to develop and validate a cancer research computational solution using open-source software for vendor- and sequence-neutral high-throughput image processing and feature extraction.

Methods: The Cancer Radiomic and Perfusion Imaging (CARPI) automated framework is a Python-based software application that is vendor- and sequence-neutral. CARPI uses contour files generated using an application of the user's choice and performs automated radiomic feature extraction and perfusion analysis. This workflow solution was validated using two clinical data sets, one consisted of 40 pelvic chondrosarcomas and 42 sacral chordomas with a total of 82 patients, and a second data set consisted of 26 patients with undifferentiated pleomorphic sarcoma (UPS) imaged at multiple points during presurgical treatment.

Results: Three hundred sixteen volumetric contour files were processed using CARPI. The application automatically extracted 107 radiomic features from multiple magnetic resonance imaging sequences and seven semiquantitative perfusion parameters from time-intensity curves. Statistically significant differences (P < .00047) were found in 18 of 107 radiomic features in chordoma versus chondrosarcoma, including six first-order and 12 high-order features. In UPS postradiation, the apparent diffusion coefficient mean increased 41% in good responders (P = .0017), while firstorder_10Percentile (P = .0312) was statistically significant between good and partial/nonresponders.

Conclusion: The CARPI processing of two clinical validation data sets confirmed the software application's ability to differentiate between different types of tumors and help predict patient response to treatment on the basis of radiomic features. Benchmark comparison with five similar open-source solutions demonstrated the advantages of CARPI in the automated perfusion feature extraction, relational database generation, and graphic report export features, although lacking a user-friendly graphical user interface and predictive model building.

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