Principia Health Sciences / est. 2020 / Cary, NC

From real-world data to submission-grade evidence.

Principia builds CuRE — Collaborative Research Ecosystems — so disease associations, clinics, patients, CROs, and sponsors can use one governed record across the entire research pipeline. EHR, registry, lab, patient-reported, manufacturing, shipping, biomarker, and cytogenetic data resolve to OMOP, then flow into analytics, quality, safety, TMF, and regulatory outputs without rebuilding the dataset for every question.

Evidence pipeline
RWD → regulated outputs
FHIR in · OMOP core · SDTM/eCTD/RIM out
Cross-modal
Integrated datasets
EHR · registry · ePRO · manufacturing · biomarkers
Time to value
Fewer research steps
Less re-keying · fewer queries · fewer decks by hand
Compliance
Validation built in
21 CFR 11 · EMA Annex 11 · HIPAA · audit evidence

01 / Platform overview

One platform. Every product.
One governed record.

At the heart of CuRE is one governed OMOP record. The suite reads the way evidence flows: collected at sites and from patients, governed into one record, operated and monitored, analyzed, and submitted. Every product appears once, in the stage where it does its work.

One governed record across every product · OMOP CDM v5.4 Explore the full platform

02 / Why CuRE is different

Five reasons CuRE is different.

Not another EDC with a data lake bolted on. CuRE is an end-to-end research pipeline: one governed record, cross-modal evidence, regulated outputs, and validation evidence carried through every product.

D-01

One governed record across the work.

Clinical, registry, patient-reported, safety, TMF, regulatory, and AI-assisted work all resolve to the same governed OMOP substrate instead of reconciling flat-file islands.

D-02

RWD-to-submission evidence pipeline.

FHIR, CRO files, registries, labs, claims, and patient inputs map once to OMOP; downstream products carry that evidence toward SDTM/CDASH, TMF packages, eCTD sequences, registrations, and labels.

D-03

Cross-modal answers incumbents cannot reach.

Ask whether cryopreservation approach, manufacturing variance, shipping time, biomarkers, ePRO adherence, and EHR history affect CAR-T outcomes without building a one-off dataset.

D-04

Compliance and validation by construction.

21 CFR Part 11, EMA Annex 11, HIPAA, validation evidence, audit trails, source lineage, AI logs, and regulatory acknowledgements are product substrate, not a late validation project.

D-05

Time to value: fewer steps, fewer clicks.

CuRE removes research busywork: fewer duplicate entries, fewer reconciliation passes, fewer manual queries, less deck assembly, and less thinking required to move from question to evidence.

Streamline or eliminate research steps instead of automating the same old handoffs.

See how the platform fits together

03 / Benefits of integration

Questions disconnected systems cannot answer.

Integration is not just a cleaner architecture diagram. It changes the questions a research organization can ask, because operational work, clinical evidence, safety, quality, and regulatory outputs all point back to the same governed record.

Read the whitepaper
Question 01

Which sites create downstream safety, quality, and data-cleaning burden after adjusting for patient acuity?

EDC, operations, safety, RBQM, EHR, and outcomes resolve to one governed record.

Site quality is measured by total evidence burden, not just enrollment speed.

Question 02

Do manufacturing delays, shipment excursions, or late dosing change response, relapse, or adverse-event patterns?

Supply, chain-of-custody, clinical outcomes, and safety data stay linked.

Operational variance becomes clinical insight.

Question 03

Which protocol criteria drive screen failures, slow enrollment, deviations, and poor real-world generalizability?

Protocol operations, EHR eligibility, site execution, and longitudinal outcomes can be queried together.

Design studies around patients who actually exist and sites that can execute.

Question 04

Are physician-facing CDS alerts changing enrollment, adherence, safety reporting, or outcomes?

EHR workflow, study operations, care-team activity, and patient outcomes share context.

Measure whether point-of-care engagement changes the study, not just clicks.

Question 05

Which sites should we approach next based on eligible-patient volume, execution quality, and outcome history?

Site capability profiles come from governed evidence, not self-reported feasibility PDFs.

Feasibility from evidence, not surveys.

Question 06

Which label, submission, or registration changes are supported by live safety, outcomes, and operational evidence?

Regulatory lifecycle records remain connected to the evidence and analyses behind them.

Regulatory content stays connected to the evidence record.

We have spent years watching outcomes research duct-tape trial tools into shapes they were never designed to hold.

Real-world evidence happens in patient journeys.

P-01

Dense, not cramped.

Clinical research is information-rich. The interface earns space with alignment, tabular data, and hierarchy instead of padding everything into sameness.

P-02

Semantic color does real work.

Teal means automated, amber means attention, sky means information, and magenta marks AI-assisted work. Color carries state.

P-03

Context persists.

Study, site, patient, cohort, and time cursor should follow the user across surfaces, pages, and refreshes.

P-04

Provenance is visible.

Every important value should show whether it was entered, ingested, suggested, reviewed, locked, or overridden.

P-05

AI stays attributable.

AI features should expose confidence, source material, and correction paths instead of hiding authorship behind a magic button.

04 / The unified record

One patient record, stitched from every source.

EHRs, labs, registries, claims, patient apps, and cytogenetics map through open standards into one governed record — FHIR on the way in, OMOP as the analytical backbone, submission-grade SDTM/CDASH on the way out.

data flow / sources → standards → governed record → outputs
Sources
EHR / FHIR SMART on FHIR
Lab feeds HL7 · LOINC
Patient PROs Compass
Registries OMOP-mapped
Claims ICD · SNOMED
Cytogenetics ISCN parser
Standards layer
FHIR
EHR connectivity & ingestion
OMOP CDM v5.4
analytical backbone · OHDSI toolkit
SDTM · CDASH
submission-grade outputs
one governed record
Outputs
Cohorts & Briefings Calculate
Signal detection Canary
Quality & KRIs Caliber
Decision support Cue
Randomization & supply Cascade
Study operations Control
standards in · governed record · standards out

05 / Parsing at scale

Cytogenetics, parsed at scale.

CuRE Cyto turns free-text ISCN karyotypes into structured, analyzable records — automatically, as a step in your data pipeline rather than manual re-keying. Chromosome count, sex, abnormality type, breakpoints, and cell counts resolve into the governed OMOP record, ready for cohorts and analytics.

The same engine runs live in your browser — paste a karyotype or pick an example to watch it resolve on the page.

See the full cytogenetics workflow
Try:

Enter an ISCN string above or click an example to see it parsed.

This is a lightweight demo — for full ISCN 2016/2020 parsing, visit cyto.principia.health

Talk to Principia

Let's talk about your most difficult clinical trial and RWE challenges.

We engage leading non-profits, health systems, and biopharma organizations on programs ranging from data integration and report automation to full CuRE network buildouts.

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info@principia.health
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