Wearing a fur coat in the summertime: Should digital pathology redefine medical imaging?

Q2 Medicine
Peter Gershkovich
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引用次数: 0

Abstract

Slides are data. Once digitized, they function like any enterprise asset: accessible anywhere, ready for AI, and integrated into cloud workflows. But in pathology, they enter a realm of clinical complexity—demanding systems that handle nuance, integrate diverse data streams, scale effectively, enable computational exploration, and enforce rigorous security.
Although the Digital Imaging and Communications in Medicine (DICOM) standard revolutionized radiology, it is imperative to explore its adequacy in addressing modern digital pathology's orchestration needs. Designed more than 30 years ago, DICOM reflects assumptions and architectural choices that predate modular software, cloud computing, and AI-driven workflows.
This article shows that by embedding metadata, annotations, and communication protocols into a unified container, DICOM limits interoperability and exposes architectural vulnerabilities. The article begins by examining these innate design risks, then challenges DICOM's interoperability claims, and ultimately presents a modular, standards-aligned alternative.
The article argues that separating image data from orchestration logic improves scalability, security, and performance. Standards such as HL7 FHIR (Health Level Seven Fast Healthcare Interoperability Resources) and modern databases manage clinical metadata; formats like Scalable Vector Graphics handle annotations; and fast, cloud-native file transfer protocols, and microservices support tile-level image access. This separation of concerns allows each component to evolve independently, optimizes performance across the system, and better adapts to emerging AI-driven workflows—capabilities that are inherently constrained in monolithic architectures where these elements are tightly coupled.
It further shows that security requirements should not be embedded within the DICOM standard itself. Instead, security must be addressed through a layered, format-independent framework that spans systems, networks, applications, and data governance. Security is not a discrete feature but an overarching discipline—defined by its own evolving set of standards and best practices. Overlays such as those outlined in the National Institute of Standards and Technology SP 800-53 support modern Transport Layer Security, single sign-on, cryptographic hashing, and other controls that protect data streams without imposing architectural constraints or restricting technological choices.
Pathology stands at a rare inflection point. Unlike radiology, where DICOM is deeply entrenched, pathology workflows still operate in polyglot environments—leveraging proprietary formats, hybrid standards, and emerging cloud-native tools. This diversity, often seen as a limitation, offers a clean slate: an opportunity to architect a modern, modular infrastructure free from legacy constraints. While a full departure from DICOM is unnecessary, pathology is uniquely positioned to prototype the future—to define a more flexible, secure, and interoperable model that other domains in medical imaging may one day follow. With support from forward-looking DICOM advocates, pathology can help reshape not just its own infrastructure, but the trajectory of medical imaging itself.
夏天穿着皮大衣:数字病理学应该重新定义医学成像吗?
幻灯片是数据。一旦数字化,它们的功能就像任何企业资产一样:可以在任何地方访问,为人工智能做好准备,并集成到云工作流程中。但在病理学中,它们进入了临床复杂性领域——要求系统处理细微差别,集成不同的数据流,有效扩展,实现计算探索,并执行严格的安全性。尽管医学中的数字成像和通信(DICOM)标准彻底改变了放射学,但探索其在解决现代数字病理学编排需求方面的充足性是必要的。DICOM设计于30多年前 ,反映了在模块化软件、云计算和人工智能驱动的工作流程之前的假设和架构选择。本文展示了通过将元数据、注释和通信协议嵌入到统一的容器中,DICOM限制了互操作性并暴露了体系结构漏洞。本文首先检查这些固有的设计风险,然后挑战DICOM的互操作性声明,最后提出一个模块化的、与标准一致的替代方案。本文认为,将图像数据与编排逻辑分离可以提高可伸缩性、安全性和性能。HL7 FHIR(健康级别7快速医疗互操作性资源)等标准和现代数据库管理临床元数据;可缩放矢量图形等格式处理注释;快速的云原生文件传输协议和微服务支持磁贴级映像访问。这种关注点分离允许每个组件独立发展,优化整个系统的性能,并更好地适应新兴的人工智能驱动的工作流——这些功能在这些元素紧密耦合的单片架构中受到固有约束。它进一步表明,安全需求不应该嵌入到DICOM标准本身中。相反,必须通过跨系统、网络、应用程序和数据治理的分层、格式独立的框架来解决安全性问题。安全性不是一个独立的特性,而是一个包罗万象的学科——由它自己不断发展的一组标准和最佳实践来定义。国家标准与技术研究所SP 800-53中概述的覆盖层支持现代传输层安全、单点登录、加密散列和其他控制,这些控制可以保护数据流,而不会施加架构约束或限制技术选择。病理学正处于一个罕见的拐点。与DICOM根深蒂固的放射学不同,病理学工作流程仍然在多语言环境中运行,利用专有格式、混合标准和新兴的云原生工具。这种多样性通常被视为一种限制,但它提供了一个全新的开端:一个从遗留约束中构建现代模块化基础设施的机会。虽然完全脱离DICOM是没有必要的,但病理学是未来原型的独特定位——定义一个更灵活、更安全、更可互操作的模型,有朝一日医学成像的其他领域可能会效仿。在前瞻性DICOM倡导者的支持下,病理学不仅可以帮助重塑自身的基础设施,还可以帮助重塑医学成像本身的发展轨迹。
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
Journal of Pathology Informatics
Journal of Pathology Informatics Medicine-Pathology and Forensic Medicine
CiteScore
3.70
自引率
0.00%
发文量
2
审稿时长
18 weeks
期刊介绍: The Journal of Pathology Informatics (JPI) is an open access peer-reviewed journal dedicated to the advancement of pathology informatics. This is the official journal of the Association for Pathology Informatics (API). The journal aims to publish broadly about pathology informatics and freely disseminate all articles worldwide. This journal is of interest to pathologists, informaticians, academics, researchers, health IT specialists, information officers, IT staff, vendors, and anyone with an interest in informatics. We encourage submissions from anyone with an interest in the field of pathology informatics. We publish all types of papers related to pathology informatics including original research articles, technical notes, reviews, viewpoints, commentaries, editorials, symposia, meeting abstracts, book reviews, and correspondence to the editors. All submissions are subject to rigorous peer review by the well-regarded editorial board and by expert referees in appropriate specialties.
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