What Aurelyn Trial | OS™ Solves
The clinical trial industry has long operated with a fundamental structural failure: documentation, data, and compliance artifacts live in disconnected silos. Oversight is retrospective, errors compound silently, and teams spend months reconstructing truth for inspections and regulatory submissions. Aurelyn Trial | OS™ ends this.
Aurelyn Trial | OS™ is a protocol-native, AI-powered operating layer that sits above the existing landscape of clinical trial technology — EDC, eTMF, CTMS, IVRS/IWRS, Safety Systems — and unifies them into a single, coherent compliance intelligence engine. It does not replace these systems. It governs them.
The product is anchored by a fundamental insight from the clinical operations domain: the Protocol is the Law of the trial. Every downstream activity, every data point, every site communication, every document — all of it is a direct expression of the protocol's requirements. By treating the protocol as executable logic and anchoring the engine to pre-loaded global regulatory standards (ICH GCP, CFR, CDISC, eTMF Reference Model), the system moves from reactive auditing to proactive governance.
The result is a trial team that doesn't discover compliance gaps during a sponsor audit or an FDA inspection — they resolve them in real time, at the point of entry, with the specific regulatory citation and remediation pathway already provided.
From Static Database to Operational Intelligence
Aurelyn Trial | OS™ is built on a foundational paradigm shift: the clinical trial ecosystem must evolve from recording what happened to governing how it happens.
- Siloed systems with no cross-validation
- Compliance reviewed retrospectively at close-out
- eTMF is a static repository — documents stored, not monitored
- Protocol amendments create "version drift" at sites
- CSR compilation requires months of manual data reconciliation
- Deviations discovered late, remediation is reactive
- Inspection readiness is a periodic, intensive effort
- All systems unified into one compliance truth layer
- Compliance enforced continuously, in real time
- eTMF is operational — documents monitored, flagged, enforced
- Amendments trigger automated downstream propagation workflows
- CSR data is pre-structured and audit-ready throughout the trial
- Deviations surfaced at entry, remediation is prescriptive
- Inspection readiness is a persistent state — not an event
"You are not just building a tool. You are building a closed-loop integrity engine for a high-stakes environment where the cost of entropy is literal human risk."
— Aurelyn Trial | OS™ Design Principles, 2026The Trinity of Clinical Truth
Aurelyn Trial | OS™ intelligence is derived from three immutable sources that together constitute the single, unified source of truth for any active trial.
The Aurelyn Clinical Engines™ Stack
A four-layer architectural model that transforms raw, multi-source clinical data into actionable compliance intelligence.
Six Pillars of Clinical Governance
Aurelyn Trial | OS™ is organized around six interconnected functional domains, each addressing a critical failure point in the conventional clinical trial management paradigm.
- System-specific API connectors with schema validation
- Real-time canonical data model normalization
- Temporal event reconciliation (occurrence vs. entry date)
- Schema drift alerts with immediate flagging
- Full ingestion audit log with timestamps
- Structured protocol parsing (ICH/FDA template-anchored)
- Visit schedule and time-events matrix extraction
- Activity compliance matrix generation
- Lax protocol requirement flagging against regulatory floor
- Human sign-off workflow with version control
- Deterministic protocol-vs-evidence comparison engine
- SAE and critical reporting window enforcement
- Regulatory citation auto-mapping per deviation
- Prescriptive remediation suggestions from regulatory guidance
- Deviation categorization ingestion from CRA/Medical Monitor
- eTMF Reference Model completeness mapping
- Expired document detection with automatic alerts
- Missing signature tracking and escalation
- Document version currency enforcement across all sites
- ICF version drift detection at site level
- Amendment loading and impact analysis workflow
- Automatic ICF update requirement generation
- IRB/Ethics Committee submission requirement triggers
- Site data collection adjustment notifications
- Protocol epoch versioning with full audit lineage
- Continuous deviation log with remediation status
- Pre-structured CSR deviation summary generation
- Full protocol-epoch-versioned data lineage
- Inspection-ready document package export
- Regulatory submission data quality validation
Regulatory & Data Standard Framework
The system ships with a pre-loaded, versioned Regulatory Knowledge Base. This is the immutable bedrock — the standards against which all trial data is measured. Users cannot modify this layer.
| Standard / Framework | Body | Scope of Application | Classification |
|---|---|---|---|
| ICH E6(R3) — GCP | ICH | Overall trial conduct, investigator responsibilities, monitoring | REGULATORY_LAW |
| 21 CFR Part 312 | FDA | IND regulations, sponsor/investigator obligations | REGULATORY_LAW |
| 21 CFR Part 11 | FDA | Electronic records, electronic signatures, audit trails | REGULATORY_LAW |
| 21 CFR Part 50 | FDA | Informed consent standards | REGULATORY_LAW |
| 21 CFR Part 54 | FDA | Financial disclosure requirements | REGULATORY_LAW |
| EMA GCP Directive | EMA | EU clinical trial conduct standards | REGULATORY_LAW |
| PMDA Guidelines | PMDA | Japan-specific regulatory requirements | REGULATORY_LAW |
| ICH E3 — CSR Structure | ICH | Clinical Study Report format and content | GUIDANCE |
| ICH E9 — Statistical Principles | ICH | Statistical methodology standards | GUIDANCE |
| EU AI Act (Annex III) | EU | High-risk AI system governance for clinical applications | GOVERNANCE |
| CDISC CDASH | CDISC | Case report form data collection standards | DATA_STANDARD |
| CDISC SDTM | CDISC | Study data tabulation model for submission | DATA_STANDARD |
| CDISC ADaM | CDISC | Analysis data model standards | DATA_STANDARD |
| eTMF Reference Model v3.x | TMF Reference Model | Trial Master File completeness and structure | DATA_STANDARD |
| MedDRA | ICH | Adverse event coding terminology | TERMINOLOGY |
| SNOMED CT | IHTSDO | Clinical terminology normalization | TERMINOLOGY |
| HIPAA / GDPR | US/EU | Patient data privacy and security | PRIVACY_LAW |
API Connector Specifications
Each source system requires a purpose-built API connector. Connectors are read-only by design and include schema validation, semantic normalization, and continuous drift monitoring.
| System Category | Primary Function | Data Ingested | Standard Mapping | Criticality |
|---|---|---|---|---|
| Electronic Data Capture (EDC) | Subject data, visit records, CRF entries | Visit dates, activity completion, AE/SAE entries, lab values, protocol deviations | CDISC CDASH / SDTM | Critical |
| eTMF Platform | Trial Master File documents | Document status, version, signatures, expiration dates, completeness metrics | eTMF Ref Model v3 | Critical |
| CTMS | Study and site operational data | Site activation, monitoring visit logs, issue tracking, enrollment status | CDISC CDASH | Major |
| Safety / SAE System | Adverse and serious adverse event reporting | SAE narratives, MedDRA coding, regulatory reporting timelines, causality assessments | MedDRA / ICH E2A | Critical |
| IVRS / IWRS | Randomization and supply management | Subject randomization records, kit allocation, resupply triggers | CDISC SDTM | Major |
| Central Laboratory | Lab results and analysis | Lab panel results, reference ranges, critical value flags, sample receipt records | CDISC LAB / CDASH | Major |
| Regulatory Submission Platform | Regulatory correspondence and submissions | IRB/IEC submissions, approvals, IND safety reports, amendment submissions | eTMF Ref Model / 21 CFR | Major |
| Site Document Portal | Site-level document management | Investigator CVs, training records, delegation logs, site agreements | eTMF Ref Model | Moderate |
| Pharmacovigilance Database | Signal detection and SUSAR management | SUSAR narratives, regulatory notifications, safety update reports | ICH E2A / MedDRA | Critical |
Protocol as Executable Logic
The Protocol Logic Engine is the mechanism by which a dense, highly-structured clinical document is transformed into the operating rules of the trial OS. This is the most critical setup function in the system.
The eTMF as a Living Compliance System
Aurelyn Trial | OS™ fundamentally redefines the eTMF's role — from a passive document archive to an active, real-time compliance participant.
Deviation Detection, Classification & Remediation
Every deviation is detected in real time, classified by regulatory severity, linked to the specific violated protocol section and regulatory citation, and presented with prescriptive remediation guidance — before it compounds.
Severity Classification Framework
| Severity | Definition | Examples | Notification Cadence | Escalation |
|---|---|---|---|---|
| Critical | Immediate regulatory or subject safety risk. Reporting window violations. | SAE not reported within 24/7/15 days; protocol eligibility violation; unauthorized modification of primary endpoint data | Immediate (real-time alert + email within minutes) | Medical Monitor + Clinical Lead + Sponsor QA |
| Major | Significant protocol violation with potential data integrity or safety impact | Missed required visit outside window; unapproved ICF version used; missing lab assessment at required timepoint | Same-day notification | CRA + Site + Clinical Lead |
| Moderate | Protocol deviation with limited direct impact but requiring formal documentation | Assessment performed outside protocol window; incorrect kit dispensed and returned; partial visit completion | Within 24–48 hours per protocol SOP | CRA + Site Coordinator |
| Minor | Administrative or documentation gap not affecting data integrity or subject safety | Missing signature on non-critical document; minor date discrepancy in source record; documentation lag within acceptable window | Scheduled remediation review cycle | Site Coordinator notification |
Deviation Types Monitored
Priority-Weighted, Regulatory-Anchored Notifications
Notification timing and escalation paths are derived directly from the protocol and applicable regulatory reporting timelines — never arbitrary.
- In-Platform Dashboard: Persistent action items with status tracking
- Automated Email: Direct to responsible party with full regulatory context
- Escalation Chain: Protocol-defined supervisor notification if unresolved
- In-App Acknowledgment: Recipients must log receipt of critical alerts
- Issue opened timestamp (detection in source data)
- Notification sent timestamp (responsible party)
- Acknowledgment timestamp (human receipt confirmation)
- Resolution timestamp (correction confirmed in source system)
- Time-to-resolution metric per site and per issue type
Command Center for Clinical Governance
The dashboard provides every user role with a purpose-built, role-scoped view of trial health, compliance status, and actionable items — updated in real time.
Primary Dashboard Modules
Role-Based Access & Accountability
Access to the system is strictly role-based, ensuring that each user sees only the data and actions relevant to their accountabilities — consistent with ICH GCP delegation requirements.
| Role | Scope | Primary Dashboard View | Action Permissions |
|---|---|---|---|
| Sponsor QA / Regulatory Lead | Full trial, all sites | Trial-wide compliance health, critical deviations, audit trail | View all; approve protocol rules; export audit packages |
| Clinical Project Manager | Full trial, all sites | System health overview, remediation velocity, site performance | View all; manage action escalations; monitor team accountability |
| Medical Monitor | Full trial — safety focus | SAE log, safety reporting compliance, deviation severity queue | View all safety data; classify major/critical deviations |
| Clinical Research Associate (CRA) | Assigned site(s) | Site-specific action queue, eTMF completeness, visit readiness | View site data; acknowledge notifications; add monitoring comments |
| Data Manager | EDC data domain | Data collection status, schema flags, missing fields | View data quality metrics; generate data queries |
| Regulatory Affairs | Regulatory documents | Amendment propagation tracker, IRB status, regulatory submissions | View regulatory domain; manage amendment workflow |
| Site Coordinator (Read-Only) | Single site — limited | Site-level action items only | View site-specific items; acknowledge receipt of notifications |
| System Administrator | Configuration only | Connector health, system logs, user management | Manage users, connectors, system configuration; no clinical data modification |
Protocol Amendment as an Active System Event
In conventional practice, protocol amendments are uploaded to the eTMF and communicated via email — leaving the burden of downstream impact assessment to individual team members. Aurelyn Trial | OS™ eliminates this gap entirely.
From Trial to Submission — Data Crystallization
The ultimate output of Aurelyn Trial | OS™ is not just a cleaner trial — it is the elimination of the most painful, resource-intensive phase of drug development: close-out and CSR compilation.
Because the system maintains a continuous, real-time, validated compliance record throughout the trial, the transition to CSR and NDA submission is not a reconstruction — it is a crystallization of evidence that has been accumulating since Day One.
Every deviation, its severity classification, its protocol and regulatory citation, its remediation action, and its resolution confirmation is logged, timestamped, and structured in the exact format required for CSR narrative generation. The CSR deviation table is, effectively, always current.
System Compliance Requirements
Aurelyn Trial | OS™ itself must operate as a validated, compliant system — subject to the same regulatory rigor it enforces on the trials it governs.
Enterprise Security Architecture
Security requirements for a validated clinical system operating in a regulated environment demand enterprise-grade controls across every layer.
| Security Domain | Requirement | Standard |
|---|---|---|
| Authentication | Multi-factor authentication (MFA) mandatory for all users. SSO integration with enterprise identity providers (SAML 2.0, OAuth 2.0) | 21 CFR Part 11 / NIST SP 800-63B |
| Authorization | Role-based access control (RBAC) with least-privilege principles. All access decisions logged in immutable audit trail | 21 CFR Part 11 |
| Data Encryption | AES-256 encryption at rest. TLS 1.3 minimum for all data in transit. End-to-end encryption for all API connector channels | NIST FIPS 140-2 / ISO 27001 |
| Audit Trail | Immutable, time-stamped audit trail for all system events. Non-modifiable by any user including administrators. Exportable for regulatory inspection | 21 CFR Part 11.10(e) |
| Business Continuity | 99.9%+ uptime SLA. Active-active geographic redundancy. RTO < 4 hours, RPO < 1 hour. Disaster recovery plan with documented testing | GxP Data Integrity / GAMP 5 |
| Penetration Testing | Annual third-party penetration testing. Vulnerability scanning for all API connectors. Bug bounty program for responsible disclosure | OWASP / ISO 27001 |
| Change Control | All system changes subject to formal change control with impact assessment and regression testing. No "hotfixes" to validated production environment | GAMP 5 / 21 CFR Part 11 |
| Data Integrity | ALCOA+ principles enforced for all ingested data: Attributable, Legible, Contemporaneous, Original, Accurate. Data hashing at ingestion to detect tampering | FDA Data Integrity Guidance 2018 |
Phased Build & Delivery
A four-phase development roadmap from foundational infrastructure to full commercial deployment, with validation milestones at each phase gate.
Identified Risks & Mitigations
A candid assessment of the primary technical, operational, and regulatory risks in this architecture — each with a defined mitigation strategy.
| Risk | Category | Impact | Mitigation |
|---|---|---|---|
| Semantic Mapping Drift — source system field-level changes misinterpreted as clinical data | Technical | Critical | Schema drift detection layer within each connector; automated alerts on any structural API change; human review required before ingestion resumes post-schema-change |
| Alert Fatigue — volume of notifications desensitizes functional teams | Operational | Major | Strict severity classification; role-scoped notifications (users see only their items); remediation velocity monitoring enables PM to identify systemic bottlenecks early |
| Protocol Parsing Gaps — complex or non-template protocol sections may be incompletely extracted | Technical | Major | Human expert review and sign-off of all derived rules before activation; mandatory flag for any section where extraction confidence is below threshold |
| API Connector Failures — source system downtime disrupts real-time ingestion | Technical | Major | Connector health monitoring with immediate alert on ingestion interruption; queued re-ingestion on reconnection; dashboard indicator for last-sync timestamp per system |
| Regulatory Standard Updates — new guidance invalidates pre-loaded regulatory rules | Compliance | Major | Controlled versioning of Regulatory Knowledge Base; annual review cycle; immediate update protocol for major guidance changes; notification to all active trial instances on regulatory version update |
| Human Validation Bottleneck — sign-off workflows delay trial start or amendment activation | Operational | Moderate | SLA-defined turnaround expectations for human review; escalation path if reviews are not completed within protocol-defined timeframe; parallel review workflow for multiple approvers |
| Data Privacy Breach — inadvertent ingestion of unmasked subject PII | Privacy / Legal | Critical | Connector-level PII stripping and pseudonymization before data enters the Aurelyn layer; privacy impact assessment per source system; GDPR/HIPAA DPA requirements enforced at onboarding |
One Source of Truth.
Every Trial. Every Site. Every Moment.
Aurelyn Trial | OS™ — where clinical compliance shifts from retrospective reconstruction to real-time governance, and where every deviation found today protects a patient tomorrow.