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Transform Fragmented Clinical Data into Unified Patient Journeys

A single, reusable foundation that eliminates duplication and automates the complex journey from raw healthcare data to analysis-ready patient intelligence.


The Problem: Fragmented Clinical Data Creates a Massive Engineering Burden​

The Reality of Healthcare Data

Healthcare data is scattered across EHRs, PDFs, imaging systems, lab platforms, and claims databases, with limited interoperability and inconsistent standards. Critical clinical facts are frequently embedded in unstructured text, scanned documents, and reports rather than discrete fields.

The Hidden Cost of Data Fragmentation​

πŸ“‰ Loss of Clinical Context

Temporal relationships, negation, and uncertainty are stripped away during data extraction

πŸ”€ Inconsistent Coding

Different terminologies and vocabularies across systems create integration nightmares

πŸ”— Broken Relationships

Difficulty maintaining cross-document clinical connections and patient linkages

⚠️ Non-Deterministic AI

Unpredictable results that reduce trust in clinical and regulatory settings

The Engineering Tax​

πŸ’° The Hidden Cost

Healthcare organizations invest man-years of engineering effort annually just to make clinical data usable for secondary purposes. This effort is not driven by innovation, but by necessity: raw clinical data is heterogeneous and fundamentally unprepared for analytics or AI.

Even mature organizations routinely report multi-year backlogs just to keep secondary use pipelines operationalβ€”before any actual analytics or AI value is delivered.

Across large health systems, life sciences companies, and payers, secondary use initiatives repeatedly require teams to:

1

Discover and connect to new data sources

Navigate complex EHR integrations, APIs, and data extracts

β†’
2

Reverse-engineer undocumented schemas

Decipher proprietary data models and field meanings

β†’
3

Reconcile inconsistent patient identifiers

Link records across systems with different MRNs and matching algorithms

β†’
4

Normalize incompatible terminologies

Map local codes to standard vocabularies (SNOMED, RxNorm, LOINC)

β†’
5

Re-extract clinical meaning from raw text

Build NLP pipelines to parse clinical notes and reports

The Duplication Problem​

πŸ” Repeated Across Teams

Crucially, this effort is repeated across teams, departments, and use cases. Instead of investing once in a reusable secondary use foundation, organizations end up rebuilding similar pipelines over and over again.


The Solution: Patient Journey Intelligence​

Build Once, Use Everywhere

A single, reusable foundation that eliminates duplication and transforms raw clinical data into standardized, analysis-ready patient journeys.

A Single Foundation for All Secondary Use Applications​

Patient Journey Intelligence is the systematic process of assembling, standardizing, and enriching multimodal healthcare data to create comprehensive, chronological views of individual patient experiences across care settings, timeframes, and data sources.

πŸ“Š

Longitudinal Patient Views

Complete timelines of clinical events, encounters, diagnoses, treatments, and outcomes

πŸ”„

Cross-Source Integration

Unified representation of data from EHRs, imaging, labs, and clinical notes

⏱️

Temporal Reasoning

Understanding the sequence and relationships of clinical events over time

πŸ”

Clinical Context Preservation

Maintained semantic meaning, provenance, and confidence across transformations

βœ“

Deterministic Processing

Reproducible, auditable transformations for regulatory and clinical trust

⚑

Instant Updates

Automatic ingestion and analysis of new data as it becomes available, with seamless integration into the unified OMOP knowledge base


How It Works: From Raw Data to Clinical Intelligence​

The Automated Pipeline

The platform automates the complex journey from disparate healthcare data to actionable intelligence through five integrated stages.

1

Ingestion

Sources: EHR systems (FHIR, HL7 v2), clinical notes (text, PDFs, scanned docs), lab results, imaging metadata, claims and registry data

↓

2

Extraction

Capabilities: Named Entity Recognition, Relation Extraction, Assertion detection (negation, uncertainty, temporal context), Clinical context preservation

↓

3

Normalization

Vocabularies: SNOMED CT, RxNorm, LOINC, ICD-10-CM, CPT

↓

4

Reasoning

Capabilities: Entity deduplication, Conflict resolution, Temporal consistency, Confidence scoring

↓

5

Enrichment

Features: Timeline construction, Care episode identification, Treatment pathway analysis, Outcome tracking


Key Capabilities​

πŸ”„

Multimodal Data Integration

Free-text clinical notes and reports

Structured EHR extracts

Laboratory results

Medical imaging metadata

Registry data & FHIR resources

🧬

OMOP-Centered Standardization

Consistent representation across sources

Interoperability with research tools

Reproducible analytics and research

Cross-institutional collaboration

Quality measure computation

πŸ“‹

Provenance & Auditability

Source attribution: Which system and document

Extraction confidence: AI model scores

Transformation lineage: Full audit trail

Temporal markers: Precise timestamps


Business Impact​

⚑ Eliminate Duplication

Build once, use everywhere. Create a single, reusable secondary use foundation instead of rebuilding pipelines for every project.

πŸš€ Accelerate Time to Value

Transform weeks of manual data engineering into hours of automated processing.

πŸ’Ό Reduce Engineering Burden

Free specialized data engineering teams from repetitive pipeline maintenance to focus on innovation.

πŸ“ˆ Improve Data Completeness

Capture up to 40% more clinical information by extracting facts from unstructured notes.

βœ… Enable Regulatory Trust

Deterministic, auditable processing with full provenance tracking meets clinical and regulatory requirements.

πŸ”’ Secure On-Premises Deployment

Zero data sharing. Platform runs entirely within your VPN or on-premises infrastructure. No PHI leaves your network or is shared with third parties.


Clinical Applications Powered by Patient Journey Intelligence​

πŸ”¬ Clinical Research & RWE

  • Retrospective outcomes studies
  • Clinical trial feasibility
  • Comparative effectiveness research
  • Multi-institutional collaboration

πŸ“Š Quality & Performance

  • Clinical performance measurement
  • Registry development and reporting
  • Care gap identification
  • Performance benchmarking

πŸ‘₯ Population Health

  • Cohort identification and segmentation
  • Disease surveillance
  • Risk stratification
  • Care coordination

πŸ“ Patient Registries

  • Disease-specific registry development
  • Automated data extraction and abstraction
  • Longitudinal outcome tracking
  • Multi-site registry coordination

πŸ€– AI & Machine Learning

  • Training data for predictive models
  • Clinical decision support systems
  • Natural language understanding
  • Computer vision for medical imaging

πŸ’Š Pharmacovigilance & Drug Safety

  • Adverse event detection and reporting
  • Medication error identification
  • Drug-drug interaction surveillance
  • Post-market safety monitoring

Technical Foundation​

🧬 OMOP Common Data Model v5.4

All data standardized to the leading observational research standard

Supported Domains:

  • Person, Observation Period, Visit
  • Condition, Drug, Procedure Occurrence
  • Measurement, Observation, Device
  • Note, Specimen, Provider, Care Site

Benefits:

  • Cross-institutional analytics
  • Reproducible research methodology
  • Interoperability with OHDSI tools
  • Consistent cohort definitions

βš™οΈ Distributed Processing Architecture

  • Scalable to millions of patients and billions of events
  • Parallel processing for high throughput
  • Cloud-native or on-premise deployment
  • Enterprise-grade security and compliance

Why Patient Journey Intelligence Matters​

❌ Traditional Approaches Require:

  • Rebuild pipelines repeatedly for each new use case
  • Wait months or years for data engineering backlogs to clear
  • Accept incomplete data due to structured field limitations
  • Sacrifice reproducibility due to ad-hoc transformations

βœ… Patient Journey Intelligence Provides:

  1. A reusable foundation: Build once, leverage everywhere
  2. Automated processing: Replace manual engineering
  3. Complete data capture: Structured + unstructured
  4. Standardized outputs: OMOP CDM consistency
  5. Built-in governance: Provenance, audit trails, de-ID

Begin Your Implementation Journey​

Ready to transform your healthcare data into patient journey intelligence?

1

Understand Requirements

Learn about the Requirements for Secondary Use of Clinical Data

2

Explore the Architecture

Review the Anatomy of Patient Journey Intelligence platform

3

Assess Readiness

Evaluate your Data Readiness for implementation

4

Plan Deployment

Contact sales@johnsnowlabs.com to discuss deployment options (AWS, Azure, Databricks, Snowflake, On-Premise)