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    PHI data-security and encryption architecture overview
    PHI Data Security

    PHI data-security engineering

    We protect Protected Health Information end to end — encryption in transit and at rest, managed key rotation, tokenization, and de-identification — engineered into every data flow and backed by continuous, audit-ready logging.

    Trusted by global innovators

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    Lera
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    Pento Pix
    TAP
    Xtrium
    Healthevolve
    Benchmark
    Chibasco
    Fundency
    Lantimer
    Lauren
    Lera
    One Minute
    Pento Pix
    TAP
    Xtrium
    Healthevolve
    Benchmark
    Chibasco
    Fundency
    Lantimer
    Lauren
    Lera
    One Minute
    Pento Pix
    TAP
    Xtrium
    Healthevolve

    Our compliance approach

    We treat PHI protection as a data-flow discipline, not a perimeter. Every place PHI is created, stored, transmitted, or transformed gets explicit controls — encryption, least-privilege access, key management, and de-identification — so protected data never leaks into logs, analytics, or lower environments, and every access stays traceable.

    Framework

    A structured, data-flow-first approach to PHI security — mapping every touchpoint, then engineering encryption, tokenization, and de-identification into each one.

    PHI Data-Flow Mapping

    We map where PHI enters, moves, rests, and leaves your systems, and classify every touchpoint by sensitivity and risk.

    Control Design

    We design encryption, key management, tokenization, and de-identification tailored to each data flow and access pattern.

    Secure Data Layer

    We implement field-level encryption where warranted, managed KMS with rotation, and PHI-aware logging that keeps protected data out of logs and analytics.

    Monitoring & De-Identification

    We stand up access monitoring, anomaly detection, and Safe Harbor / Expert Determination de-identification for analytics and partner access.

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    Lera Health

    Lera Health screenshot 1

    Health evolve

    Our Process

    Data-flow-first delivery

    A repeatable process that protects PHI at every touchpoint — from ingestion to de-identified secondary use — with audit-ready evidence at each layer.

    1.

    Data-Flow & Sensitivity Mapping

    We inventory PHI touchpoints and classify data by sensitivity, access, and residency requirements.

    2.

    Encryption & Key Management

    TLS 1.2+ in transit, AES-256 at rest, envelope encryption, and managed key rotation with least-privilege access.

    3.

    Tokenization & De-Identification

    We tokenize identifiers and build Safe Harbor / Expert Determination pipelines for safe secondary use.

    4.

    Monitoring & Audit

    Every PHI access is logged, tamper-evident, and monitored for anomalies, with retention enforced in code.

    PHI protection
    architecture

    Layered PHI safeguards — encryption in transit and at rest, managed key rotation, tokenization, de-identification, network isolation, and continuous audit logging engineered into every layer.

    PHI protection architecture overview

    Featured case study

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    Lera Health: compliant health platform

    Related proof of PHI-safe delivery: for Lera Health we built a privacy-first data layer with encryption, consent-aware flows, and audit-ready logging — protecting sensitive health data end to end.

    Lera health responsive web platform
    Lera health mobile app experience

    Our relevant experience

    What makes us stand out!

    Frequently Asked Questions

    TLS 1.2+ in transit, AES-256 at rest, envelope encryption via managed KMS (AWS, GCP, or Azure), and field-level encryption for the most sensitive fields — extending to backups and logs.

    Protect your PHI

    Tell us how PHI moves through your product, and we'll map the encryption, key-management, and de-identification controls it needs.