Validated outcomes High-fidelity simulation
38%
Increased Operational Throughput
via ADT + FHIR Encounter normalization
85%
Early Capacity Strain Detection
30-day predictive horizon accuracy
47%
Reduction in High-Cost Utilization
progression-aware demand modeling
89%
Forecast Accuracy at 30-Day Horizon
FHIR Encounter + HL7 ADT streams

How we validate

The methodology behind every metric

Before you can defend a procurement internally, you need to understand how outcomes were produced. Our four-layer validation process is designed to withstand scrutiny from clinical informatics, IT security, and finance simultaneously.

01
Standards-native data intake
All simulations ingest only standards-compliant data structures. No custom formats, no proprietary schemas that don't translate to your EHR environment.
HL7 v2 · FHIR R4 · X12
02
High-fidelity simulation environments
Outcomes are generated against simulated operational datasets that replicate multi-facility, multi-EHR conditions — not cherry-picked pilot data.
Multi-EHR · Multi-facility
03
Deterministic reasoning layer
No non-deterministic inference risk. Every output is anchored to ICD-10, SNOMED CT, and HCPCS reference standards — traceable to source.
ICD-10 · SNOMED CT · HCPCS
04
100% section-level audit traceability
Every inference, recommendation, and metric can be traced back to its source document or data event. Compliance threshold: 80% minimum confidence.
Audit-ready · Traceable

Regulatory & compliance

Standards your procurement
team will recognise

These are not marketing claims. Each represents a technical implementation decision.

Active
Interoperability
HL7 FHIR® R4
Patient, Encounter, Condition, and Procedure resources natively consumed. Longitudinal care modeling without ETL re-engineering.
ADT feeds Clinical events Encounter chains
Active
Privacy & Security
HIPAA / PHI
Privacy-preserving edge analytics with zero biometric identity persistence. Anonymous flow tracking only — no PHI stored or transmitted.
Edge compute Zero PHI persist Anon tracking
Active
Clinical Terminology
SNOMED CT
Clinical concept anchoring for disease progression modeling, comorbidity detection, and cross-system normalisation without terminology mapping overhead.
Progression chains Comorbidity pairs Normalised
In progress
Trust & Assurance
SOC 2 Type II
Security and availability controls audit underway. Current architecture is designed to Type II requirements. Estimated completion available on request.
Security Availability Confidentiality
Active
Revenue Cycle
X12 837 Claims
Institutional and professional claim transaction support. RCM analytics, utilisation pattern detection, and payer contract validation at the claim level.
Institutional Professional RCM analytics
Active
Imaging & Diagnostics
DICOM / PACS
PACS and RIS workflow integration for imaging asset utilisation intelligence. Cross-device benchmarking across imaging, diagnostic, and therapeutic equipment.
PACS integration RIS workflows Asset tracking

Validated use cases

Each capability validated through high-fidelity simulations reflecting real operating conditions.

tabs-image

AINalyzer · Clinical Analytics

Encounter Records to Early Clinical Signals

Converts structured encounter data into clinically meaningful insight — identifying disease progression patterns, delayed diagnosis risks, geographic access effects, and emerging capacity pressures using existing clinical and administrative data sources.

Challenge
  • EHR data optimised for billing, not intelligence
  • Fragmented longitudinal patient record visibility
  • Unquantified access-to-care disparities
  • Retrospective utilisation-based demand planning
Prajna AI approach
  • FHIR Encounter / Condition / Procedure sequence mining
  • Risk-adjusted benchmarking across multi-EHR environments
  • Geospatial access inequity quantification
  • ADT + FHIR streams → predictive demand signals
Observed outcomes
12%
of conditions drove 68% of downstream procedures — surfaced from FHIR Encounter sequences
74%
of high-acuity readmissions linked to top 3 progression chains
31%
higher late-stage diagnoses in patients travelling >25 miles — geospatial inequity quantified
89%
forecast accuracy at 30-day capacity horizon
tabs-image

VisionIQ · Computer Vision

Visual Observation to Measured Patient Flow

A privacy-preserving computer vision system that quantifies patient flow, room utilisation, and congestion dynamics using existing camera infrastructure — with zero PHI exposure.

Challenge
  • Unmeasured throughput latency across flow stages
  • Manual room and resource status tracking
  • Heuristic staffing vs encounter-driven demand
  • HIPAA / PHI exposure risk with camera systems
Prajna AI approach
  • FHIR-driven room & chair visibility
  • HL7 v2 ADT-informed staffing optimisation
  • HIPAA-compliant edge analytics — no PHI stored
  • Sub-second zone state updates (<1s latency)
Observed outcomes
0
manual data entry — fully automated patient flow capture
<1s
room & zone state update latency — real-time operational visibility
10–15%
throughput uplift potential via turnover optimisation
0
PHI or biometric identity persisted — anonymous tracking only
tabs-image

DocuLens · Document Intelligence

Contract Interpretation to Structured Compliance Validation

Standardises contract validation across heterogeneous healthcare documents — from 837 claims artifacts to payer contracts — eliminating reviewer-dependent interpretation and missed requirement exposure.

Challenge
  • Clause-by-clause manual validation overhead
  • Missing requirement exposure risks
  • Reviewer-dependent interpretations
  • No structural visibility across document sets
Prajna AI approach
  • 837 claims, HL7 messaging, ICD-10, SNOMED CT aware
  • Automated structural parsing & semantic indexing
  • Reference-standard deviation detection
  • Weighted compliance scoring + audit-ready reports
Observed outcomes
80%
minimum compliance confidence threshold — below which findings are escalated for review
100%
section-level traceability — every finding linked to source clause
manual review effort significantly reduced across contract sets
audit preparedness — structured, reproducible validation output
tabs-image

DocuDigest · Equipment Intelligence

Equipment Specs to Deterministic Performance Validation

Interprets equipment manuals, safety constraints, and operating specifications — delivering traceable, explainable validation for biomedical and clinical engineering teams who previously depended on SME availability.

Challenge
  • Fragmented device / equipment data sources
  • Unvalidated safety & constraint rules
  • SME-dependent operational analysis
  • No explainable decision reasoning
Prajna AI approach
  • HL7, FHIR, device manuals, SOPs ingested natively
  • Deterministic + AI reasoning for constraint-aware analysis
  • Automated OEM / accreditation compliance validation
  • Cross-device benchmarking — imaging to therapeutic assets
Observed outcomes
engineering assessment time — deterministic reasoning replaces manual interpretation
safety validation confidence — OEM limits and accreditation thresholds enforced programmatically
decision repeatability — answers traceable to source documentation, not SME memory
expert dependency — engineering teams operate without specialist availability bottlenecks
AINalyzer · Clinical Analytics

Encounter Records to Early Clinical Signals

Converts structured encounter data into clinically meaningful insight — identifying disease progression patterns, delayed diagnosis risks, geographic access effects, and emerging capacity pressures using existing clinical and administrative data sources.

Challenge
  • EHR data optimised for billing, not intelligence
  • Fragmented longitudinal patient record visibility
  • Unquantified access-to-care disparities
  • Retrospective utilisation-based demand planning
Prajna AI approach
  • FHIR Encounter / Condition / Procedure sequence mining
  • Risk-adjusted benchmarking across multi-EHR environments
  • Geospatial access inequity quantification
  • ADT + FHIR streams → predictive demand signals
Observed outcomes
12%
of conditions drove 68% of downstream procedures — surfaced from FHIR Encounter sequences
74%
of high-acuity readmissions linked to top 3 progression chains
31%
higher late-stage diagnoses in patients travelling >25 miles — geospatial inequity quantified
89%
forecast accuracy at 30-day capacity horizon
VisionIQ · Computer Vision

Visual Observation to Measured Patient Flow

A privacy-preserving computer vision system that quantifies patient flow, room utilisation, and congestion dynamics using existing camera infrastructure — with zero PHI exposure.

Challenge
  • Unmeasured throughput latency across flow stages
  • Manual room and resource status tracking
  • Heuristic staffing vs encounter-driven demand
  • HIPAA / PHI exposure risk with camera systems
Prajna AI approach
  • FHIR-driven room & chair visibility
  • HL7 v2 ADT-informed staffing optimisation
  • HIPAA-compliant edge analytics — no PHI stored
  • Sub-second zone state updates (<1s latency)
Observed outcomes
0
manual data entry — fully automated patient flow capture
<1s
room & zone state update latency — real-time operational visibility
10–15%
throughput uplift potential via turnover optimisation
0
PHI or biometric identity persisted — anonymous tracking only
DocuLens · Document Intelligence

Contract Interpretation to Structured Compliance Validation

Standardises contract validation across heterogeneous healthcare documents — from 837 claims artifacts to payer contracts — eliminating reviewer-dependent interpretation and missed requirement exposure.

Challenge
  • Clause-by-clause manual validation overhead
  • Missing requirement exposure risks
  • Reviewer-dependent interpretations
  • No structural visibility across document sets
Prajna AI approach
  • 837 claims, HL7 messaging, ICD-10, SNOMED CT aware
  • Automated structural parsing & semantic indexing
  • Reference-standard deviation detection
  • Weighted compliance scoring + audit-ready reports
Observed outcomes
80%
minimum compliance confidence threshold — below which findings are escalated for review
100%
section-level traceability — every finding linked to source clause
manual review effort significantly reduced across contract sets
audit preparedness — structured, reproducible validation output
DocuDigest · Equipment Intelligence

Equipment Specs to Deterministic Performance Validation

Interprets equipment manuals, safety constraints, and operating specifications — delivering traceable, explainable validation for biomedical and clinical engineering teams who previously depended on SME availability.

Challenge
  • Fragmented device / equipment data sources
  • Unvalidated safety & constraint rules
  • SME-dependent operational analysis
  • No explainable decision reasoning
Prajna AI approach
  • HL7, FHIR, device manuals, SOPs ingested natively
  • Deterministic + AI reasoning for constraint-aware analysis
  • Automated OEM / accreditation compliance validation
  • Cross-device benchmarking — imaging to therapeutic assets
Observed outcomes
engineering assessment time — deterministic reasoning replaces manual interpretation
safety validation confidence — OEM limits and accreditation thresholds enforced programmatically
decision repeatability — answers traceable to source documentation, not SME memory
expert dependency — engineering teams operate without specialist availability bottlenecks

Before and after

What changes when you switch from
reactive to predictive

Dimension Traditional environments With Prajna AI
Demand planning Retrospective reporting
Describes what happened, not what's coming
Predictive system signals
89% forecast accuracy at 30-day horizon via FHIR ADT streams
Capacity visibility Hidden operational pressure
Strain identified after it becomes a crisis
85% early strain detection
Sub-second zone state updates; automatic congestion flagging
Clinical data use Billing-optimised records
EHR data structured for reimbursement, not insight
Progression-aware analytics
FHIR Encounter/Condition/Procedure sequences mined for clinical patterns
Compliance posture Buried acronyms
Standards cited without technical implementation evidence
Traceable to source
100% section-level auditability; 80% confidence threshold enforced
Procurement defensibility Vendor-supplied claims
Downloadable validation report
Full methodology documentation for your CMO, CFO, and IT security board

Agentic framework

Five layers. All traceable.

Each layer of the Prajna AI Agentic Framework is independently auditable and maps to a defined compliance perimeter.

Layer 01
Control
Standards-Aligned Intake
Interprets HL7 v2, FHIR, and 837. Normalises signals across EHR, LIS, PACS, RCM. Eliminates cross-system data ambiguity.
Layer 02
Intelligence
Deterministic Reasoning
Anchored to ICD-10, SNOMED, HCPCS. Detects progression & utilisation patterns.
74%readmissions from top 3 chains
47hidden comorbidity pairs detected
Layer 03
Execution
Operational Intelligence
Converts signals into early-warning indicators. Supports capacity & demand planning.
85%early strain detection
89%30-day forecast accuracy
Layer 04
Governance
Compliance-Safe
Deterministic reasoning with traceability. Standards-constrained validation logic. No non-deterministic inference risk.
80%min confidence threshold
100%section-level traceability
Layer 05
Presentation
Clinician-Readable
Converts analytics into decision signals. Highlights risk, flow, and bottlenecks. Reduces interpretation overhead and accelerates operational decisions.

Ready to build your business case?

Talk to a clinical informaticist on our team — not a sales rep.