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SECURITY · POSTURE

Sovereignty is not a feature. It is the substrate.

Every part of HYVE Ether OS is built so that no party — not us, not your ISP, not a future quantum-capable adversary — can read your data without your explicit consent. This page documents the five principles, the cryptographic primitives, and the certifications.

Five principles.

  1. 01

    Local-first by default

    All operator state lives in ~/.hyve/ on your machine, encrypted with vault-derived keys. At idle the OS does not phone home, send telemetry, or upload activity. Opt-in features you turn on — encrypted messaging's connectivity relays, maps, and the manual update check — reach only the specific services they need; nothing else leaves the box. Relay endpoints carry only end-to-end-encrypted payloads we cannot decrypt.

  2. 02

    Post-quantum by construction

    ML-KEM-768 key exchange + 512-byte uniform cells + ChaCha20-Poly1305 AEAD + Ed25519 signatures across the substrate. Built for the day quantum computers break the rest of the internet — your data is encrypted against that day starting today.

  3. 03

    Hardware below software

    Camera, microphone, and other privacy-sensitive peripherals are gated at the kernel module level — below the userspace, below the browser. No software can override the hardware kill.

  4. 04

    Cryptographic recovery

    DataCore archives are encrypted per chunk with AES-256-GCM under a key derived from your vault, with an Ed25519-signed root hash you can verify entirely offline — so you can prove an archive is authentic and untampered. Vault recovery uses Shamir 3-of-5 social threshold — your trusted contacts can collectively help you recover, no single party ever has full access.

  5. 05

    Auditable decisions

    Omega's decide() function is deterministic — same input, same output, every time, under 200 ns per rule. Every decision is reconstructible in Observatory. Auditors can replay any decision exactly.

Security features index.

Every security-relevant feature shipping in HYVE Ether OS.

  • Post-Quantum Encrypted by Construction

    Every byte on the substrate flows through a 512-byte uniform encrypted cell — ChaCha20-Poly1305 AEAD, ML-KEM-768 key exchange, Ed25519 signatures, blind routing tokens. Built for the day quantum computers break the rest of the internet.

  • Sovereign Data Protocol (.hyvedata)

    Per-chunk Brotli + AES-256-GCM encryption with an Ed25519-signed root hash you can verify offline, plus SQLite-indexed metadata; one vault unlock decrypts every archive. (NOT yet in the shipped build: Reed-Solomon GF(256) parity shards + Particle-Swarm-Optimized layout for partial-corruption survival — the designed next layer.)

  • HYVE Uniform Transport (HYVE-UT)

    Every message on the inter-organ bus is a fixed 512-byte cell — header, nonce, encrypted payload, Poly1305 tag. Same size regardless of payload, eliminating size-based traffic analysis attacks.

  • HYVE Cell-Sharded Transport (HYVE-CST)

    Messages exceeding 387 bytes are split via Shamir K-of-N secret sharing applied per byte position over GF(256). Any K cells reconstruct the original; any K-1 cells reveal nothing.

  • HYVE Blind Routing Tokens (HYVE-BRT)

    Routing tokens are HKDF-SHA256 over the chain key, swarm identifier, and cell sequence index. Cells of the same conversation are unlinkable to relays without the chain key.

  • HYVE Ratchet (Forward Secrecy at Message Granularity)

    Per-conversation epochs with chain-key rotation via HKDF-SHA256 and zeroized prior keys. Compromising current state never compromises past traffic.

  • Sovereign OS Architecture

    Two-tier key hierarchy (PIN + biometric → KEK → DEK), multi-organ topology over the cell substrate, GF(256) Shamir K-of-N recovery, .hyvedata signed-shard archive, deterministic decide() runtime — all in one architecture.

  • Tarpit + Tor + Sentinel Defensive Triad

    A tarpit organ that drips fake banners to attackers for hours, a Tor controller organ with pluggable transports (obfs4, meek_lite, snowflake), and a sentinel kill organ for cross-platform process termination — all audit-logged.

  • .hyvedata Generation Pipeline

    SHA-256 hash, Brotli compression, AES-256-GCM per-chunk encryption, SQLite metadata, Ed25519-signed root hash — the shipping archive flow. (Reed-Solomon parity + PSO layout are the not-yet-shipped corruption-recovery layer.)

  • Per-Organ Identity Isolation

    Each organ presents an authentication record at startup: organ name, epoch counter, ML-KEM-768 key encapsulation token, Ed25519 signature. Organs without verified signatures are rejected by the bus.

  • Multi-Factor Auth + Panic-Wipe PIN

    PIN, password, gesture, face biometric, fingerprint biometric — at least one combination required to unlock. A second 'panic' PIN at the unlock prompt marks the data partition for irreversible secure wipe on next reboot.

  • Cover-Cell Traffic Analysis Defense

    Network-indistinguishable decoy cells generated with cryptographically random payload bytes and AEAD encryption identical to real cells. Operators maintain constant traffic-rate against passive observers.

  • Civic Credential Verification Gate

    Constant-evaluation credential check before any civic sub-surface accepts operator documents — no document reaches encrypted storage until the unlock gate validates.

  • Federal Compliance Phased Installer

    Operator-paced phased federal-compliance installer at /opt/hyve/fed-compliance/. Phases: banner, audit, sysctl, MAC, strict, all — each adds a coherent set of system-hardening primitives.

  • Civic Chat Redaction Filter

    Operator-visible chat output of any civic sub-surface is filtered through a redaction function before display — protects against accidental leakage of sensitive civic data.

  • Shell-Script Generation Injection Defense

    Operator parameters validated against per-parameter constraint sets (URL scheme allowlists, control-character rejection, length caps). Validated values written to mode-0600 sidecar env files; scripts read via shell builtins, never heredoc-interpolated.

  • Timing-Leak-Free Credential Verification

    Multi-factor unlock with length-capped inputs, parallel Argon2id derivations without short-circuit, bitwise-AND combination, and uniform error message on failure — defends against side-channel timing attacks.

  • Staged Operator-Paced OS Hardening

    Hardening installer with phase argument (banner / audit / sysctl / mac / strict / all) — each phase is auditable and reversible via revert phase that restores the prior baseline snapshot.

  • Cross-Device Pairing Without Centralized Server

    Pairing token + ephemeral Ed25519 keypair encoded in a QR code; second device scans, opens TCP handshake, exchanges cell-substrate messages to establish a HYVE-Ratchet keyed by the operator's long-lived identity. No centralized pairing service.

  • Operator-Controlled Signaling-Relay (Sovereignty Default Empty)

    HYVE_RELAY_URL defaults empty. Features that need a relay surface an operator-actionable opt-in notification; setter enforces HTTPS-only + URL-parser validation; persisted to mode-0600 env file. Re-read at every send call site — zero-restart updates.

  • Capability-Bounded LLM Execution

    Tactical-tier LLM execution where the model's available actions are bounded by a capability manifest at invocation time. The model literally cannot reach beyond its declared scope — hard isolation, not prompt suggestion.

  • Time-Locked Decryption (Verifiable Delay Function)

    Evidence sealed under a verifiable-delay-function gate that mathematically resists early decryption — useful for legal evidence chain-of-custody where reveal time must be controllable and provable.

  • Mesh-Distributed Persona With Duress Auto-Shred

    Operator persona threshold-sharded across a mesh of devices. A duress signal silently triggers persona auto-shred — coercion against any single device cannot reconstruct the persona.

  • Typing-Rhythm Duress Detection

    Anomaly detection over the operator's typing-rhythm baseline — sudden departure from established patterns triggers a silent duress signal across the persona mesh.

  • Self-Mutating Defenses With Bounded Mutation

    Defensive postures evolve under bounded mutation — the system varies its own surface to resist signature-based attacks without exceeding operator-set safety boundaries.

  • Deterministic Classification Inheritance for ML Training

    Training data inherits classification labels deterministically — derived models cannot accidentally produce outputs at lower classification than their inputs.

  • Decoupled Binary/Policy Accreditation Signing

    Threshold signing for accreditation that decouples the signed binary from the signed policy — binaries can be re-accredited without re-signing policy, and vice versa.

  • AEAD-Nonce-Bound Caveat Enforcement

    Wire-layer caveat enforcement bound into AEAD nonce material — caveats cannot be stripped without invalidating the cell's authentication tag.

  • Classification-Aware Multi-Audience Briefing Synthesis

    Single source briefing rendered for multiple audiences (operator, command, allied, public) with per-audience classification awareness — automatic redaction at each tier.

  • Sentinel Hardware Kill-Switches

    Camera and microphone cut at the kernel module level, below userspace, below the browser. No software can override the hardware kill.

  • HYVE Identity

    Sovereign on-device identity: X25519 master keypair, Shamir 3-of-5 social recovery, HKDF-derived scoped tokens. No cloud account required, ever.

CONTINUOUS INTERNAL AUDIT

No known high or critical issues

We run a continuous internal security audit across the OS and the website. As of the current build there are no known high- or critical-severity issues; lower-severity findings are triaged, mitigated, and scheduled against upcoming builds as a normal part of development. We patch high-severity issues within 7 days of confirmation and credit good-faith reporters.

SHARED RESPONSIBILITY

Yours vs. ours.

Because HYVE Ether OS runs on your hardware with zero vendor access, the line is unusually clean: you remain the data controller; we are responsible for the software, not your data.

You

DATA CONTROLLER · COVERED ENTITY

  • All data created, stored, and processed inside the OS — it lives on your hardware, encrypted with your keys
  • Operator access control, provisioning, and authentication policy
  • Your regulatory duties — HIPAA Covered Entity, GDPR controller, and breach determination for your data
  • Physical security of the devices running HYVE
  • What you choose to connect to, download, or share off-device

HYVE

SOFTWARE VENDOR · VIBE SOFTWARE SOLUTIONS

  • Secure development (SDLC), code review, and supply-chain integrity
  • Signed, tamper-evident updates — Ed25519 via the Depot
  • Vulnerability management, responsible disclosure, and patch SLAs
  • The cryptographic architecture — post-quantum, local-first, zero-access by design
  • Processing of commercial data only — purchase, license, support — under a DPA
  • Control mappings, security questionnaires, and SOC 2 (in progress)

By default there is no shared data plane: the OS never phones home, so the data you'd normally split responsibility for in a cloud/SaaS model never reaches us in the first place.

COMPLIANCE · FRAMEWORKS

Compliance & frameworks.

Honest status, stated plainly — we list where each framework actually stands, never a badge we haven't earned. The throughline: because HYVE Ether OS runs on your hardware and never phones home, most regulated data never reaches us in the first place, which shrinks the scope of every framework below.

SOC 2 Type II

Audit readiness in progress

SOC 2 Type II audit readiness is actively underway. Our controls are mapped to the AICPA Trust Services Criteria (Security, Availability, Confidentiality), with a formal independent CPA audit scheduled. We are not yet certified — the report and bridge letters will be published here the moment they are issued. Under NDA, prospects can request our current control mapping and security package today.

HIPAA

Aligned · BAA available

HIPAA has no 'certification' — what's real is the architecture and a signed Business Associate Agreement. HYVE's local-first design keeps Protected Health Information on your own hardware; it never transits our servers, which structurally shrinks HIPAA risk. The OS is built to support the HIPAA Security Rule safeguards — access control, audit controls, integrity, and transmission security. We will execute a BAA with qualifying customers.

GDPR & CCPA

Aligned · DPA available

Data minimization and residency are the default: your data stays on your device, so for most deployments HYVE processes no personal data at all. For customers who require it, a Data Processing Agreement (DPA) is available and our sub-processor list is provided on request.

ISO/IEC 27001

Controls mapped · on roadmap

Our information-security controls map to the ISO/IEC 27001 Annex A control families. Formal certification through an accredited body is on our roadmap, pursued in parallel with SOC 2 based on customer demand.

FedRAMP · CMMC · NIST 800-53

Control mappings available

For public-sector and defense procurement, HYVE provides read-only control mappings (NIST 800-53 / CMMC families) and ships a phased federal-hardening installer in the OS. We do not claim an authorization we don't hold — engage us for a controls package and the path that fits your ATO.

FOR PROCUREMENT & SECURITY TEAMS

Request our security package

We provide our control mapping, a completed security questionnaire (SIG / CAIQ), our sub-processor list, and a BAA or DPA for qualifying customers. HYVE Ether OS also ships an in-product Compliance module that maps live OS controls to framework requirements on your own deployment.

Email majixx@vibesoftwaresolutions.com with your framework and timeline.

Reporting a vulnerability.

If you discover a security issue in the OS, the website, or the relay endpoints, please email majixx@vibesoftwaresolutions.com with details. We acknowledge within 48 hours, ship a fix within 7 days for high-severity issues, and credit reporters in the public findings doc unless you ask otherwise.

We follow coordinated-disclosure norms: please give us a chance to patch before public disclosure. We do not litigate good-faith security research.