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How Clinical Labs Can Implement FAIR Data Principles

FAIR Principles are reshaping information management in clinical labs. Here’s what lab managers need to know to make FAIR work for them

Written byJordan Willis, BSc
| 4 min read
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Every clinical lab generates data, but not all of it remains usable for colleagues, regulators, or even the lab itself months later. In this era of digitized health systems, increased regulatory scrutiny, and cross-lab collaboration, the ability to store, access, and reuse data with minimal friction is now a necessity.

The FAIR Data Principles aim to address that need. First introduced in a 2016 Scientific Data publication, FAIR stands for Findable, Accessible, Interoperable, and Reusable. These four pillars describe the qualities that make data more useful over time in a variety of contexts, including different platforms, systems, and use cases.

It’s important to understand that FAIR isn't a regulation or a technical standard. It's a flexible framework for managing data so that it remains valuable and actionable over time. Although FAIR originated in life science research, its relevance and suitability for clinical laboratories have grown rapidly, evidenced by the rising number of FAIR-related publications in clinical fields and its inclusion in data policy frameworks such as the Horizon Europe Open Science Policy.. Labs that adopt FAIR principles typically benefit from improved traceability, easier audits, stronger compliance, and smoother integration with digital systems such as Laboratory Information Management Systems (LIMS) and Electronic Medical Records (EMRs). As data standards undergo inevitable changes and digital infrastructure matures, a working knowledge of FAIR implementation will become an essential skill for future-ready clinical laboratories.

Why FAIR matters for clinical lab managers

Clinical laboratories face a unique set of pressures: tight regulatory oversight, increasing data volumes, the need for interoperability, and a focus on accuracy and reproducibility. In this context, FAIR Data Principles offer a practical guide to improving how data is handled and maintained while considering future compatibility. Some aspects of FAIR that are beneficial to clinical labs can be detailed under the four main pillars:

1. Findable

  • Ensuring that data from instruments, staff, or sample tracking is consistently indexed and labeled
  • Supporting audit readiness by making records easy to locate and cross-reference
  • Aiding in troubleshooting by improving visibility into data lineage and lab processes

2. Accessible

  • Facilitating access to data by specific personnel, systems, or collaborators without labor-intensive retrieval steps
  • Incorporating both technical access (e.g., APIs, searchable repositories) and legal access (e.g., consent, regulatory compliance)
  • Reducing the burden of data retrieval during inspections or when onboarding new staff

3. Interoperable

  • Supporting integration with LIMS, EMRs, quality control software, and other digital tools
  • Ensuring consistent data formatting, terminology, and metadata across systems
  • Enabling cross-site comparisons or collaborations, which are increasingly common in diagnostics and clinical trials

4. Reusable

  • Emphasizing documentation and metadata that make data understandable beyond its original purpose
  • Enabling historical analysis, secondary research, or validation of methods
  • Supporting reproducibility and regulatory compliance through transparent and traceable data trails

While not an exhaustive list, it’s clear that the FAIR framework encompasses many aspects of lab data management. Adhering to these principles can help boost operational efficiency, reduce errors, and prepare your lab for an increasingly digital and collaborative healthcare landscape.

FAIR implementation in the clinical lab

FAIR isn’t a simple, step-by-step instruction guide. Instead, implementation involves making intentional choices about how data is generated, documented, stored, and shared. Fortunately, implementing FAIR doesn’t require a complete overhaul of your lab’s workflows or systems, making it possible to keep what’s already working and implement custom solutions as needed.

Primary areas for FAIR implementation include:

1. Data Reliability and Documentation

  • Ensure data is captured accurately at the source, ideally through automated systems
  • Apply validation checks and standardized naming conventions for samples and protocols
  • Use digital SOPs or electronic lab notebooks (ELNs) to promote consistency

2. System and Vendor Compatibility

  • Choose tools that support open or widely used formats such as CSV, HL7, or FHIR
  • Confirm compatibility with existing LIMS or EMR systems
  • Prioritize vendors who support FAIR-aligned practices, including data export, strong metadata support, and API access

3. Sustainability

  • Use non-proprietary, vendor-neutral file formats where possible to ensure long-term data accessibility
  • Regularly back up data in multiple secure locations
  • Document workflows and data models so new staff can easily understand and replicate them

4. Reproducibility and Metadata Practices

  • Integrate metadata capture into routine procedures, including sample origin, methods, timestamps, and instrument settings
  • Encourage documentation of protocol deviations or anomalies to preserve context
  • Consider searchable metadata structures to facilitate re-analysis and cross-study comparison

Keep in mind that you don’t need to do everything at once. Small but impactful first steps like standardizing file names, using consistent data formats, or tagging metadata can lay the groundwork for larger FAIR initiatives. 

Carly Huitema, PhD, and her associates at the University of Guelph are strong proponents of FAIR, making the framework an integral part of their nationwide Agri-Food Data Canada project. Her team also educates public and private institutions about FAIR, cautioning that one aspect of implementation is often overlooked. “There’s a problem with quantification. The benefits from implementing FAIR may be difficult to notice if you haven’t determined which metrics you’re measuring,” noting that the next major development for FAIR, aside from harmonizing data, is defining common metrics that can quickly demonstrate its usefulness.

Future-proofing your lab with FAIR

FAIR data principles offer clinical laboratories a scalable path to better data management, stronger compliance, and future-ready workflows. However, implementing FAIR does require effort, work culture changes, and clear policies. The good news is that you can start small, focus on what changes fit your lab, and expand at your own pace using a targeted approach.

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Looking forward, the importance of FAIR is only growing. Advances in AI, real-time data analytics, and cross-institutional diagnostics depend on structured, well-described data. Regulatory bodies and academic institutions such as the European Open Science Cloud and the University of Guelph are developing FAIR-based initiatives like the Federated FAIR Data Space and the Semantic Engine to homogenize datasets while providing common toolsets and single-point access. Meanwhile, initiatives in health informatics and translational research, such as the FAIR4Health project, are converging on FAIR frameworks as a foundation for ethical data sharing and re-use. By beginning to implement FAIR principles today, labs can stay ahead of regulatory and technological changes while building their own data-driven success stories.

About the Author

  • Jordan Willis, BSc, is a PhD candidate and science writer with a bachelor's degree in molecular biology and genetics. He has expertise in fungal biology and is interested in nutrient regulation, virology, bacteriology, and next-generation technologies for multi-omics approaches.View Full Profile

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