Healthcare & Life Sciences hub

Modernization and AI strategy for regulated healthcare and life sciences.

Health Insurance Portability and Accountability Act (HIPAA), Food and Drug Administration (FDA) Title 21 of the Code of Federal Regulations Part 11 on electronic records (21 CFR Part 11), AI safety, and the operational reality of Electronic Health Record (EHR) ecosystems and biopharma data pipelines.

What we see in Healthcare and Life Sciences.

Healthcare and life-sciences technology programs sit at the intersection of three regulators: a privacy regulator (HHS / OCR for HIPAA), a product safety regulator (FDA for SaMD and computer systems used in regulated processes), and an interoperability regulator (Office of the National Coordinator for Health Information Technology (ONC)). Most modernization failures aren’t architecture failures, they’re posture failures: a system that would have been fine as an internal tool has been deployed in a context that triggers HIPAA business-associate obligations, FDA Part 11 electronic-records requirements, or ONC information-blocking exposure that nobody scoped at the start.

We work with providers, payers, pharma, medical-device firms, and health-tech buyers on the engineering decisions where the regulatory frame and the production architecture have to be designed together. That means PHI segmentation that an OCR auditor finds defensible, validation packages for clinical and manufacturing systems that an FDA inspector can read, and Fast Healthcare Interoperability Resources (FHIR) interoperability work that doesn’t generate downstream information-blocking complaints.

On the AI side, the buyer is increasingly being asked to demonstrate bias testing, drift monitoring, and a defensible answer to the question “what happens when the model is wrong” before a clinical or operational AI system goes live. The FDA SaMD framework, the HHS AI risk-management posture, and the emerging state-level AI laws all point toward the same operational discipline.

Where we plug in for Healthcare and Life Sciences.

01

AI governance for clinical and operational use

Bias testing, drift monitoring, and FDA premarket considerations for software as a medical device. Aligned with the FDA SaMD framework, the FDA AI/Machine Learning (ML) action plan, and emerging state-level AI in healthcare statutes.

AI governance in healthcare splits into two regulatory regimes that demand different evidentiary disciplines. Clinical AI that meets the FDA's software-as-a-medical-device definition requires premarket submission evidence under the SaMD framework and the FDA's AI/ML action plan, including a predetermined change control plan if the model will continue learning post-market. Operational and administrative AI sits outside FDA jurisdiction but inside HIPAA, ONC information-blocking, and emerging state-level statutes such as California AB 3030 and Colorado's AI Act. The work begins with a use-case taxonomy that places each model on the right regulatory track, followed by validation design appropriate to the consequence tier. A senior consultant produces bias-and-fairness testing protocols stratified by the demographic categories the institution actually serves, drift-monitoring thresholds that reflect clinical-meaningfulness rather than statistical convenience, predetermined change control plan drafts where SaMD applies, and the documentation package the institution's IRB, privacy office, and chief medical officer expect to see. Successful outcomes look like a clinical AI tool that ships with monitoring instrumented from day one, an operational AI tool that withstands an OCR or state-AG inquiry, and a governance committee that can approve or pause new use cases on a known cadence. An engagement typically runs eight to twelve weeks, embedded with the chief medical informatics officer, the privacy office, regulatory affairs for SaMD scope, and the data-science team owning the model.

02

HIPAA-aligned cloud architecture

Landing zones with PHI segmentation, business-associate-agreement-aware data flow design, and the audit-log posture that an OCR investigation actually expects to see.

A HIPAA-aligned cloud architecture is a landing zone where every data flow that touches protected health information is segmented, logged, and encrypted in a way the Office for Civil Rights would expect to see during an investigation. The work begins with a PHI data-flow inventory, a business-associate-agreement boundary map across the institution's vendors, and a control mapping to the HIPAA Security Rule, the HHS recognized security practices framework, and the 405(d) Health Industry Cybersecurity Practices guidance. A senior consultant produces account or subscription segmentation aligned to PHI versus non-PHI workloads, network isolation patterns that prevent inadvertent PHI transit, key-management posture under FIPS 140-3 where applicable, and an audit-log architecture that captures access, configuration change, and data-egress events with retention windows the OCR investigator expects. Deliverables include landing-zone-as-code, the BAA-aware vendor catalog, an evidence package mapping HIPAA Security Rule citations to technical controls, and incident-response runbooks for the breach-notification scenarios the institution is most likely to face. Successful outcomes look like a routine OCR audit that closes without a corrective action plan, a posture that supports new clinical or research workloads without architecture redesign, and a security operations team that can answer breach-investigation questions in hours rather than weeks. An engagement typically runs eight to twelve weeks, embedded with cloud engineering, the privacy and security offices, and the compliance officer.

03

EHR modernization

Epic and Cerner platform optimization, FHIR interoperability work, and the integration patterns that don’t produce ONC information-blocking exposure.

EHR modernization in 2026 is rarely a platform replacement; it is the optimization, integration, and governance work that determines whether an Epic or Cerner footprint produces clinical workflow improvement or a decade of frustration. The work begins with a clinician-experience baseline, an integration inventory of the third-party applications inside the HL7 FHIR perimeter, and a compliance assessment against the ONC information-blocking rule and the 21st Century Cures Act Application Programming Interface (API) requirements. A senior consultant produces FHIR API governance for third-party integrations, Substitutable Medical Applications, Reusable Technologies (SMART)-on-FHIR app review patterns, a clinical-content governance model for order sets and documentation templates, and a modernization roadmap that distinguishes optimization work from platform-replacement work. Deliverables include an integration architecture review, an information-blocking exposure assessment, a clinician-feedback program tied to release cadence, and an interoperability program that makes United States Core Data for Interoperability (USCDI) compliance an operational outcome rather than a project. Successful outcomes look like measurable clinician documentation-time reduction, an information-blocking posture that withstands a complaint review, and a platform that supports new value-based-care arrangements without bespoke integration work each time. An engagement typically runs ten to sixteen weeks, embedded with the chief medical informatics officer, the EHR application team, the integration platform team, and the compliance lead responsible for ONC obligations.

04

Pharma data platforms

Clinical-trial data pipelines, manufacturing data lakes under Good Practice (regulated) quality guidelines (GxP) discipline, and the validation posture (Installation Qualification, Operational Qualification, Performance Qualification (IQ/OQ/PQ)) that survives an FDA inspection.

Pharma data platforms operate under GxP discipline, which means every system that produces data supporting a regulatory submission must demonstrate validation evidence under FDA 21 CFR Part 11, EU Annex 11, and the institution's own validation master plan. The work begins with a system inventory split between GxP and non-GxP scopes, a data-integrity assessment against ALCOA+ principles, and a clinical-trial or manufacturing data-flow map that traces source data to submission artifact. A senior consultant produces validation packages (IQ, OQ, PQ) for the data-platform layers, computer-system-validation documentation that aligns to GAMP 5 risk-based scoping, audit-trail architecture for the regulated data stores, and the data-contract discipline that lets clinical operations, manufacturing, and regulatory affairs share authoritative datasets without parallel reconciliation. Deliverables include a validated lakehouse or warehouse foundation, a Computer System Validation (CSV) evidence library, a data-quality monitoring framework keyed to the data-integrity controls inspectors actually examine, and a change-control process that survives an FDA 483 review. Successful outcomes look like an FDA inspection that closes without a data-integrity finding, a clinical-trial data lock that completes inside the planned window, and a manufacturing-data platform that supports both batch-release decisions and continued process verification. An engagement typically runs twelve to twenty weeks, embedded with quality assurance, regulatory affairs, the validation lead, and the data-platform engineering team.

05

Provider operational resilience

Incident response patterns for clinical-system outages, downtime procedures that maintain patient safety, and the after-action discipline that drives sustained reliability improvement.

Provider operational resilience is the discipline that determines whether a clinical-system outage becomes a documented incident with controlled patient-safety impact or a regional news story. The work begins with a clinical-system criticality tiering, a downtime-procedure inventory across inpatient, outpatient, ED, OR, and lab settings, and a recovery-objective assessment grounded in actual measured recovery rather than aspirational targets. A senior consultant produces tabletop and full-failover exercise designs for the highest-criticality systems, downtime-procedure refresh aligned to current clinical workflows, an after-action discipline that converts findings into closed risk items, and a board-level reporting pack on operational resilience aligned to the Joint Commission, Centers for Medicare & Medicaid Services (CMS) Conditions of Participation, and the HHS 405(d) framework. Deliverables include the criticality register, refreshed clinical downtime procedures, a tested incident-command structure that integrates IT incident response with clinical operations leadership, and a third-party risk register for the Software as a Service (SaaS) clinical applications now on the critical path. Successful outcomes look like a planned EHR-downtime exercise that completes inside the documented RTO, a real outage that activates the documented procedures rather than improvising, and a Joint Commission survey that closes cleanly on emergency operations and information management. An engagement typically runs eight to twelve weeks, embedded with the CMIO, the chief nursing informatics officer, IT operations leadership, and the emergency-management function.

06

Payer modernization

Claims platform replatforming, prior-authorization automation, and the regulatory posture for AI-driven utilization-management decisions.

Payer modernization centers on three platforms that determine whether a health plan operates efficiently or absorbs administrative cost the regulator and the market both penalize: the claims platform, the prior-authorization workflow, and the utilization-management decision layer. The work begins with a current-state assessment of the core admin platform (Facets, QNXT, HealthEdge, or a custom stack), a CMS interoperability and prior-authorization rule (CMS-0057-F) gap analysis, and a regulatory exposure assessment for AI-driven UM decisions under the emerging state-level statutes and the federal Mental Health Parity and Addiction Equity Act enforcement posture. A senior consultant produces a claims-platform replatforming roadmap with parallel-run reconciliation discipline, FHIR API design for the prior-authorization and patient-access requirements, governance over AI-driven UM models including the human-review gate that current state and federal expectations require, and a change-management plan for provider-network and member-facing impacts. Deliverables include the platform decision record, the CMS interoperability compliance evidence, a UM AI governance package, and an operational-readiness assessment for cutover. Successful outcomes look like an on-time prior-authorization API launch, a UM AI deployment that survives a regulator inquiry, and a claims migration that completes without a provider-payment disruption event. An engagement typically runs twelve to twenty weeks, embedded with the chief operating officer, the chief medical officer, regulatory affairs, and the platform program team.

Regulatory and compliance landscape.

Healthcare and life-sciences technology programs are governed by overlapping privacy, product-safety, and interoperability frameworks. We design deliverables to align with the frameworks that govern the work.

  • HIPAA Privacy and Security Rules →

    HHS Office for Civil Rights enforcement frame for protected health information. Privacy Rule, Security Rule, and Breach Notification Rule.

  • HITECH Act →

    Health Information Technology for Economic and Clinical Health Act. Strengthens HIPAA enforcement and breach notification, and underpins the EHR Incentive Program.

  • FDA 21 CFR Part 11 →

    Electronic records and electronic signatures requirements for FDA-regulated processes. Validation, audit trails, and record integrity.

  • FDA Software as a Medical Device (SaMD) →

    Risk-categorization framework and premarket considerations for software that performs medical functions.

  • GxP (GMP / GLP / GCP) →

    Good Manufacturing, Laboratory, and Clinical Practice frameworks that govern data integrity and computer-system validation in pharma and medical devices.

  • HITRUST CSF →

    Common Security Framework. The de-facto certification standard for healthcare business associates.

  • ONC Interoperability and Information-Blocking →

    Office of the National Coordinator for Health IT rules on FHIR API access, USCDI data classes, and information-blocking exceptions.

Prior engagements.

Regional academic health system
Closed USCDI v3 and information-blocking gaps before attestation.
Challenge

Epic to FHIR R4 interop for ONC certification

The Provider client was carrying open gaps against ONC HTI-1 information blocking rules and the USCDI v3 data class expansion, with a self-imposed attestation deadline that gave the team roughly a quarter of runway. The Epic build supported USCDI v1 cleanly but had no production bulk FHIR endpoints and an inconsistent payload mapping for the new data classes.

Approach

Barrier built the USCDI v3 element-level mapping against the Cures Act Final Rule, stood up the FHIR R4 bulk data API behind the Epic on FHIR scope, and instrumented the information-blocking exception logging the compliance officer would need to defend the attestation. We rehearsed the (g)(10) test procedures with the certified-EHR partner and walked the legal team through the new SMART App Launch consent surfaces.

Results

Attestation closed on schedule. Five-month engagement embedded with the Epic and Health Information Management (HIM) teams.

Top-20 global pharma, oncology TA
Cut Study Data Tabulation Model (SDTM)-to-Analysis Data Model (ADaM) turnaround in half under 21 CFR Part 11.
Challenge

GxP-validated cloud migration for clinical data warehouse

The Pharma client was running its oncology clinical data warehouse on aging on-prem SAS infrastructure under 21 CFR Part 11, with study-level ADaM dataset turnarounds running long enough to pressure protocol amendments and Data and Safety Monitoring Board (DSMB) cycles. The internal validation team was reluctant to revalidate every legacy study on a new platform.

Approach

Barrier ran the qualification of a Databricks footprint on Google Cloud Platform (GCP) under the client's existing GxP framework, ported the SDTM-to-ADaM pipelines with parity testing against legacy SAS outputs, and wrote the IQ/OQ/PQ documentation plus the supplier audit response. We negotiated a study-by-study revalidation strategy that limited rework to active and pivotal studies.

Results

Study-level dataset turnaround came in at roughly half the prior baseline. Eleven-month engagement co-led with the client's biostatistics and CSV functions.

Regional Medicare Advantage payer
Cleared the path to CMS-0057-F enforcement on the seven-day Service Level Agreement (SLA).
Challenge

Prior-authorization automation aligned to CMS-0057-F

The Payer client faced the January 2027 enforcement date for CMS-0057-F with a prior-authorization stack that could not meet the seven-day standard or 72-hour expedited SLAs at scale, and no production FHIR Documentation Templates and Rules (DTR) or Prior Authorization Support (PAS) APIs. The existing rules engine had drifted from policy and was generating manual-review queues the medical management team could not staff.

Approach

Barrier implemented the Da Vinci PAS, DTR, and Coverage Requirements Discovery (CRD) implementation guides against the FHIR R4 base, rebuilt the prior-authorization rules engine against the published medical policies, and instrumented the response-time monitoring CMS will examine in the API metrics filings. We rehearsed the provider-portal experience with two large delegated groups before launch.

Results

Prior Authorization (PA) decisions cleared the seven-day SLA in production. Ten-month engagement under the medical management and IT joint sponsorship.

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