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Clinical & Research Data Integration

Every Mapping to a Standard Loses Something.
Write Down What

Clinical and research data integration for life sciences, built so the standardised form and the source form both survive.

Standards exist to make data comparable, and comparability is achieved by discarding the things that make datasets different. A submission standard imposes a structure that a study did not collect in. An observational model harmonises across sources by reducing each to a common denominator. Coding a verbatim term to a dictionary replaces what somebody actually wrote with the nearest controlled concept. Converting units, deriving a visit window, collapsing a free-text qualifier: each of these is a reasonable trade of detail for consistency, and each one quietly removes something. That is fine until a later question needs the part that was removed, which is when an organization discovers that the mapping was performed, the result was accepted, and nobody recorded what did not come across.
The challenge

The standards were built for different purposes and none of them is your model

Clinical and research data integration is unusual in having an abundance of standards rather than a shortage, which creates its own confusion. A submission data structure is designed so a regulator can review studies consistently; it is an output format and it was never intended as a working model for analysis across your portfolio. An analysis dataset structure serves statistical reporting for a study. An observational common data model exists to make heterogeneous real-world sources comparable, which it achieves by mapping everything onto a deliberately general structure. An exchange standard moves information between clinical systems. Each is excellent at its own job and none of them is a general-purpose model of your clinical and research data.
The recurring error is selecting one standard as the internal model and bending everything else to fit it. Research data gets forced into a submission structure with no place for it, rich study detail is flattened into an observational model built for breadth, and information that matters operationally has nowhere to live. The workable position is less tidy and more durable: hold your own model, map to each standard at the boundary where it is required, and treat every mapping as a documented, reversible transformation rather than the canonical form.

Mapping discards detail and nobody records what

The transformation is performed, the output accepted, and the loss is never written down.

A subject has a different identity in every system

And joining those identities is a governed act, not only a technical one.

Terminology is versioned and history was coded differently

A trend across several years is partly a trend across dictionary releases.

Real-world data was generated for care and billing

Not for your research question, and the absence of a code is not the absence of a condition.

Reconciliation is treated as a quality check

When in clinical work it is the evidence that the integration can be relied upon.

Each study has its own conventions

So an integration built for one study needs rebuilding for the next unless the variability was designed for.

Two fields with the same name mean different things

And the join succeeds, which is what makes it dangerous.
Our approach

Keep the source, produce the standard, document the difference

One principle runs through everything below. The standardised dataset is an output, not the record. The source form is retained, the transformation is specified both ways where possible, and what the mapping discards is written down as deliberately as what it produces.

Step 1

Establish what each standard is being produced for

Step 2

Model your own clinical and research entities

Step 3

Settle the subject identity model and its governance

Step 4

Profile the real sources before specifying anything

Step 5

Specify mappings with the loss documented

Step 6

Version terminology explicitly

Step 7

Build the pipelines with reconciliation attached

Step 8

Enforce blinding and consent in the integration

Step 9

Validate the transformations against worked examples

Step 10

Operate with exception management and change control
Capabilities

Connect, harmonise, prove

Three groups. The first is well-understood integration work, the second is where clinical and research data differs from everything else, and the third is what makes the result usable by people who are accountable for what they publish.

Connect

EDC integration across study builds, with the per-study variability designed for rather than rebuilt around
CTMS, eTMF and operational system integration, where the study and site entities have to agree with the clinical data
LIMS and ELN integration, carrying method, instrument and condition rather than results alone
EHR and real-world data integration with source provenance and coding context retained
Laboratory and central vendor data, including the formats that arrive by file transfer and have no interface
Pipeline engineering in batch and incremental patterns, with reconciliation produced on every load

Harmonise

Subject, study, site, visit and sample identity resolution, with the governance of each join made explicit
Mapping to CDISC structures for submission and analysis, with the discarded detail documented
Observational model conversion where cross-source research requires it, and a clear statement of what it costs
Terminology coding and version management across medical, laboratory and clinical dictionaries
Unit, range and convention harmonisation, including the central and local laboratory differences
Master data for products, sites, investigators and suppliers across studies and systems

Prove

Source-to-target reconciliation at count, record and value level, produced by the pipeline on every run
Lineage from any analysis value back through transformations to the originating record
Exception management with classification and ownership, so a discrepancy has an addressee
Study metadata governance, so a dataset can be interpreted by somebody who was not on the study
Blinding and consent enforcement within the integration, per user and per study at query time
Validation of transformation logic against worked examples agreed with data management and statistics
Where it applies

Seven integrations, and what each one is actually joining on

The third column is the join each integration depends on, and it is where the work is. An integration scoped from the systems involved underestimates every one of these.
Integration What it brings together What it joins on
Operational study view EDC, CTMS, eTMF and vendor data Study, site and visit, where each system defines them slightly differently
Clinical and laboratory EDC and central or local laboratory results Subject and sample, with collection and accession identifiers in between
Translational research Clinical outcomes and biomarker or omics data Subject and specimen through preparation, aliquoting and re-analysis
Submission preparation Study data mapped to submission structures The study model and the standard, with the mapping as the artifact
Safety and clinical Case data and study data Subject and event, across systems with different coding and timing
Real-world evidence EHR, claims and registry sources Patient across sources, where a stable identity may not legally exist
Cross-study research Several completed studies Harmonised endpoints and populations defined differently per protocol
Architecture

Standards are views, and you need more than one

The architecture that works holds an internal model and produces each standard as a view of it. The architecture that causes trouble picks one standard as the internal model. The table below is what each standard is for, which should settle the question of whether any of them is your model.
Standard What it is for What it is not
CDISC SDTM Presenting collected study data for regulatory review A working model for cross-study analysis or research
CDISC ADaM Analysis-ready datasets supporting a study’s statistical reporting A general store of everything a study collected
CDISC ODM Exchanging study metadata and clinical data between systems An analysis structure
OMOP CDM Making heterogeneous real-world sources comparable for observational research A high-fidelity record of any one source
HL7 FHIR Exchanging health information between clinical systems A research data model, and not designed for trial data
HL7 v2 Established messaging between healthcare systems A storage or analysis format
MedDRA, SNOMED, LOINC Controlled vocabularies for events, concepts and tests Stable over time, which is why versioning matters
Reading the third column together makes the architectural point. Every one of these was designed for a purpose that is not holding your clinical and research data in its most complete form, and that is not a criticism of any of them. An internal model that is yours, with each standard generated from it when required, lets the organization satisfy a submission, support observational research and exchange with a clinical system without any of those requirements degrading the others.
Trust

Integration does not dilute an obligation, it combines them

Clinical and research data arrives carrying obligations attached to its origin: consent that permits specific uses, blinding that restricts who may see what and when, privacy requirements that follow the data wherever it goes, and sponsor or jurisdictional constraints. An integration brings all of those into one place simultaneously and the strictest applicable requirement governs the result. That is manageable when it is understood at design time and close to impossible to retrofit, which is why these determinations belong at the start. They are made by your clinical, quality, regulatory, privacy and legal functions, and we build to them.

Frameworks where they apply

Subject protection

Data integrity

Validation

Reliability

Everything upstream changes and nobody tells you

A clinical integration sits downstream of protocols that get amended, study builds that get modified mid-study, laboratories that change methods, vendors that change file formats, terminologies that release new versions and standards that get revised. None of those changes is announced to the integration team, and each one alters what the integrated data means.
Failure How it presents
A protocol amendment changes a definition Pre and post-amendment data are pooled and the endpoint means two things
A study build is modified mid-study A form or variable changes and the mapping silently stops covering it
A terminology version is released Coding shifts, a trend moves, and no code changed on your side
A laboratory changes method or range Values remain plausible and are no longer comparable with earlier ones
A vendor changes a file layout Parsing succeeds against the wrong columns, or a field silently empties
Reconciliation passes on counts only Totals agree, individual records do not, and nobody looked that far
A derived variable is corrected Downstream outputs already issued now disagree and nothing flags it
Linked identity drifts New subject or specimen identifiers arrive unmatched and the join quietly narrows
Study status changes and entitlements do not A role or blinding state moves on and the integrated data keeps the old permissions
An integration has no named owner Exceptions accumulate unresolved because responsibility was never assigned
Outcomes

Trusted enough that nobody checks the source first

Integration programmes are reported in systems connected and datasets delivered. The outcome that matters is whether a statistician, a data manager or a researcher uses the integrated data without verifying it against the source system first, because that behaviour is the honest measure of whether the work succeeded.
Category What we measure Why it matters
Value-level reconciliation rate Records matching at value level, with discrepancies classified The evidence the dataset rests on, and counts are not it
Source verification behaviour How often users check the integrated data against the source The honest measure of trust, and it is observable
Identity match rate Subjects, specimens and sites resolving across systems, by study Every analysis built on a join inherits this number
Mapping loss documented Transformations with the discarded detail recorded at specification Determines what questions the dataset can answer later
Time to integrate a new study Elapsed effort for study N against study N minus one Shows whether the design is compounding or rebuilding
Terminology version coverage Coded values carrying an explicit version, and verbatim retained Without it a multi-year trend cannot be interpreted
Exception ageing Unresolved discrepancies by age and owner An exception queue nobody works is a reconciliation nobody trusts

Connect clinical and research data, improve study data quality and strengthen traceability

We will establish what each standard is being produced for, model your clinical and research entities independently of them, document what every mapping discards, build reconciliation that runs on values rather than counts, and enforce blinding and consent where the data actually moves.

Why choose CaliberFocus for Clinical and Research Data Integration?

CaliberFocus integrates clinical and research data across EDC, CTMS, eTMF, LIMS, ELN and real-world sources with the source form preserved alongside the standard. We model your clinical and research entities independently of any one standard, document what every mapping discards, build reconciliation that runs on values rather than counts, and enforce blinding and consent where the data actually moves.

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