从非结构化心脏MRI电子病历报告中识别疾病病因的自然语言处理的性能和准确性

D. Kocyigit, A. Milinovich, Chan M. Lee, M. Silverman, Maleeha, Ahmad, M. Hanna, A. Gabrovsek, Jian Jin, W. Tang, R. Grimm, L. Cho, B. Griffin, S. Flamm, Deborah H Kwon
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引用次数: 0

摘要

心脏MRI (CMR)在心力衰竭患者中的应用已经得到了很好的证明,并随着MRI技术的发展而不断扩大。它在这类患者群体中的主要优势包括:准确、可重复地量化心室收缩功能;增强对异常心肌组织特征(如水肿、间质纤维化、置换性纤维化)的识别;单次扫描评估瓣膜功能/形态、心内膜和心包膜。1、2CMR现在是诊断各种类型心力衰竭的重要组成部分,包括心脏淀粉样变性、心脏结节病、心肌炎、心律失常性右室心肌病和铁超载心肌病。CMR结果也具有预后意义,如肥厚性心肌病。这些导致CMR在常规临床实践中的需求和应用不断增加。然而,将影像学结果合成为最终诊断或鉴别诊断通常以自由文本形式书写,这导致通过通用查询算法准确分类心肌病类型存在困难。自然语言处理(NLP)是一种分析方法,已被用于开发基于计算机的算法,该算法处理和转换自然语言学,使信息可用于计算它能够收集和组合从各种在线数据库中提取的信息,并有助于创建可作为研究端点的可靠输出,包括样本识别和变量收集。在成像领域,NLP也可能有一些临床应用,如突出和分类成像结果,生成后续建议,成像协议和生存预测模型
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Performance and Accuracy of Natural Language Processing to Identify Disease Aetiology from Non-Structured Cardiac MRI Electronic Medical Record Reports
The utility of cardiac MRI (CMR) in patients with heart failure has been well demonstrated and continues to expand as MRI techniques evolve. Its main superiorities in this patient population include: accurate and reproducible quantification of ventricular systolic functions; enhanced discrimination of abnormal myocardial tissue characteristics (i.e., oedema, interstitial fibrosis, and replacement fibrosis); and assessment of valvular function/morphology, endocardium and pericardium in a single scan.1,2 CMR is now an essential part of the diagnosis of various types of heart failure, including cardiac amyloidosis, cardiac sarcoidosis, myocarditis, arrhythmogenic right ventricular cardiomyopathy, and iron overload cardiomyopathy. CMR findings also have prognostic implications, such as in hypertrophic cardiomyopathy.1,2These have resulted in an increasing demand and utility of CMR in routine clinical practice. However, the synthesis of imaging findings into a final or differential diagnosis is typically written in free-text, resulting in difficulties with accurately categorising cardiomyopathy types by generic query algorithms. Natural language processing (NLP) is an analytical method that has been used to develop computer-based algorithms that handle and transform natural linguistics so that the information can be used for computation.3 It enables gathering and combining of information extracted from various online databases, and helps create solid outputs that could serve as research endpoints, including sample identification and variable collection. In the field of imaging, NLP may also have several clinical applications, such as highlighting and classifying imaging findings, generating follow-up recommendations, imaging protocols, and survival prediction models.4
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