缩小计算病理学在临床应用中的差距:将深度学习算法集成到实验室信息系统的标准化开源框架

bioRxiv Pub Date : 2024-07-16 DOI:10.1101/2024.07.11.603091
Miriam Angeloni, Davide Rizzi, Simon Schoen, Alessandro Caputo, Francesco Merolla, Arndt Hartmann, F. Ferrazzi, Filippo Fraggetta
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引用次数: 0

摘要

数字病理学(Digital pathology,DP)为癌症诊断带来了革命性的变化,使深度学习(DL)模型的开发成为可能,从而为病理学家的日常工作提供支持,并为改善患者护理做出贡献。然而,此类模型的临床应用仍面临挑战。在此,我们描述了一个概念验证框架,该框架利用开源 DP 软件和健康 7 级(HL7)标准,可将 DL 模型集成到临床工作流程中。工作流程的开发和测试是在一个完全数字化的意大利病理部门进行的。该系统采用基于 Python 的服务器-客户端架构,通过 HL7 消息传递将解剖病理实验室信息系统(AP-LIS)与包含 16 个预训练 DL 模型的外部人工智能决策支持系统(AI-DSS)互连起来。用于部署 DL 模型的开源工具箱(包括 WSInfer 和 WSInfer-MIL)被用来运行 DL 模型推理。在 QuPath 中以彩色热图的形式对模型预测进行可视化。一旦扫描到新的切片,就会根据切片的组织类型和染色情况自动运行 DL 模型推断。此外,病理学家还可以从虚拟切片托盘中选择特定的 DL 模型,按需启动分析。在这两种情况下,AP-LIS 都会向 AI-DSS 发送 HL7 信息,AI-DSS 会处理信息,运行 DL 模型推理,并根据所使用的分类模型创建适当类型的彩色热图。AI-DSS 将模型推理结果传输到 AP-LIS,病理学家可在 QuPath 和/或直接从虚拟切片托盘上查看输出结果。开发的框架支持多种 DL 工具箱,因此适用于广泛的应用。此外,这种集成工作流程也是未来病理诊断广泛采用 DL 模型的关键一步。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Closing the gap in the clinical adoption of computational pathology: a standardized, open-source framework to integrate deep-learning algorithms into the laboratory information system
Digital pathology (DP) has revolutionized cancer diagnostics, allowing the development of deep-learning (DL) models supporting pathologists in their daily work and contributing to the improvement of patient care. However, the clinical adoption of such models remains challenging. Here we describe a proof-of-concept framework that, leveraging open-source DP software and Health Level 7 (HL7) standards, allows the integration of DL models in the clinical workflow. Development and testing of the workflow were carried out in a fully digitized Italian pathology department. A Python-based server-client architecture was implemented to interconnect the anatomic pathology laboratory information system (AP-LIS) with an external artificial intelligence decision support system (AI-DSS) containing 16 pre-trained DL models through HL7 messaging. Open-source toolboxes for DL model deployment, including WSInfer and WSInfer-MIL, were used to run DL model inference. Visualization of model predictions as colored heatmaps was performed in QuPath. As soon as a new slide is scanned, DL model inference is automatically run on the basis of the slide’s tissue type and staining. In addition, pathologists can initiate the analysis on-demand by selecting a specific DL model from the virtual slides tray. In both cases the AP-LIS transmits an HL7 message to the AI-DSS, which processes the message, runs DL model inference, and creates the appropriate type of colored heatmap on the basis of the employed classification model. The AI-DSS transmits model inference results to the AP-LIS, where pathologists can visualize the output in QuPath and/or directly from the virtual slides tray. The developed framework supports multiple DL toolboxes and it is thus suitable for a broad range of applications. In addition, this integration workflow is a key step to enable the future widespread adoption of DL models in pathology diagnostics.
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