
Most digital pathology purchase decisions get evaluated one component at a time: which scanner has the best throughput, which software has the cleanest viewer, which AI tool has the strongest validation data. What gets underweighted — until it becomes a problem — is whether any of those pieces will actually talk to each other, or to the systems already running in your lab. Interoperability isn't a feature on a spec sheet. It's the difference between a digital pathology investment that compounds in value over time and one that quietly becomes a walled-off island next to everything else your lab runs.
Digital pathology has a structural interoperability challenge that fields like radiology largely solved years ago. A typical lab's ecosystem often involves one vendor for scanners, another for the LIS or EMR, and potentially a third for AI-based image analysis — and unlike radiology, pathology still relies heavily on proprietary image formats that differ from one scanner manufacturer to the next. Without a shared standard, integrating across that stack becomes custom engineering work rather than plug-and-play, which is exactly what drives up implementation cost, timeline, and risk.
DICOM — the imaging standard radiology has used for decades — is being extended to pathology through DICOM Supplement 145 and the DPA's Working Group 26, and momentum is building. But adoption across vendors is still inconsistent: some support only partial DICOM implementations, and others keep pushing proprietary formats that lock labs into a single ecosystem. For a lab making a purchasing decision today, waiting for the standard to fully mature everywhere isn't realistic — which is why vendor-neutral practices matter as much as the standard itself.
The practical costs of poor interoperability show up in a few predictable places:
An interoperable digital pathology setup generally means three things are true simultaneously: the image management platform can ingest formats and scanners from more than one manufacturer, it integrates natively with the LIS/HIS already in place rather than requiring a separate parallel record, and it stays open to third-party AI tools instead of restricting analysis to a single proprietary suite.
OptraSCAN's approach to this is built around IMAGEPath, its image management system, which is designed as an open platform — able to integrate with scanners from multiple manufacturers and more than 20 different image formats, while remaining compatible with third-party AI applications rather than requiring labs to use only OptraSCAN's own analysis tools. IMAGEPath also supports full LIS/EMR integration, so accession and patient data move with the case rather than living in a separate silo, and it's built to work across single-site labs and multi-site enterprise networks without requiring a different platform at each scale.
This orientation shows up in OptraSCAN's own partnerships: a collaboration with Paige to integrate Paige's clinical AI applications and interoperable imaging platform with OptraSCAN's scanners, and a partnership with Lumea, whose Lumea+ platform is built to integrate with any LIS alongside a marketplace of AI, scanner, and genetic-testing partners. Neither partnership would make sense if OptraSCAN's platform weren't genuinely open to begin with — a closed system doesn't attract multi-vendor integrations.
For a lab or health system evaluating a digital pathology platform, a few interoperability questions are worth asking before any hardware or software purchase, not after:
A platform that answers all four cleanly is built for the way digital pathology ecosystems actually evolve — multiple vendors, growing case volumes, and AI tools that didn't exist when the original purchase was made.