01 · abstract
Platform
Device Trust & MFA
Registered devices and multi-factor challenges for privileged access.
02 · mechanism
Registered devices and multi-factor challenges for privileged access. Unrecognized devices get stepped-up verification.
03 · literal
- Registered devices and multi-factor challenges for privileged access
- Unrecognized devices get stepped-up verification
2 concrete claims
01 · abstract
Platform
Network Monitoring
Detect unexpected listeners, rogue services, and configuration drift so you can react before problems spread.
02 · mechanism
Detect unexpected listeners, rogue services, and configuration drift so you can react before problems spread.
03 · literal
- Detect unexpected listeners, rogue services, and configuration drift so you can react before problems spread
2 concrete claims
01 · abstract
Platform
Session Hardening
Signed session tokens with expiry.
02 · mechanism
Signed session tokens with expiry. Cookies use Secure, HttpOnly, and SameSite policies.
03 · literal
- Signed session tokens with expiry
- Cookies use Secure, HttpOnly, and SameSite policies
2 concrete claims
01 · abstract
Platform
Omni AEAD-101 & Encryption
Encryption at rest and in transit (TLS 1.
02 · mechanism
Encryption at rest and in transit (TLS 1.3) plus second-layer suite omni-aead-101 over AES-256-GCM (256-bit key), binding the trinary [-1, 0, 1] 3×3 eigen unit into public AAD (omni-aead-101|trinary|-1,0,1|<purpose>).
03 · literal
- Encryption at rest and in transit (TLS 1
- 3) plus second-layer suite omni-aead-101 over AES-256-GCM (256-bit key), binding the trinary [-1, 0, 1] 3×3 eigen unit into public AAD (omni-aead-101|trinary|-1,0,1|<purpose>)
2 concrete claims
01 · abstract
Platform
Hardware Dual-Control & Trinary NAC
Hardware-bound Secure Enclave Dual-Control Mandate governs Destroy (crypto-shredding on tamper), Transmit (ephemeral session forwarding), and Encrypt (authenticated rekeying).
02 · mechanism
Hardware-bound Secure Enclave Dual-Control Mandate governs Destroy (crypto-shredding on tamper), Transmit (ephemeral session forwarding), and Encrypt (authenticated rekeying). Trinary Network Access Control enforces +1 Assert, 0 Suspend, and -1 Invert.
03 · literal
- Hardware-bound Secure Enclave Dual-Control Mandate governs Destroy (crypto-shredding on tamper), Transmit (ephemeral session forwarding), and Encrypt (authenticated rekeying)
- Trinary Network Access Control enforces +1 Assert, 0 Suspend, and -1 Invert
2 concrete claims
01 · abstract
Models
Model surface discipline
Public chat and thoughts stay on answers and ordinary proofs — sensitive internals are not exposed in customer-facing channels.
02 · mechanism
Public chat and thoughts stay on answers and ordinary proofs — sensitive internals are not exposed in customer-facing channels.
03 · literal
- Public chat and thoughts stay on answers and ordinary proofs
- sensitive internals are not exposed in customer-facing channels
2 concrete claims
01 · abstract
Models
Network & devices (defensive)
Operator-oriented posture visibility and isolation recommendations.
02 · mechanism
Operator-oriented posture visibility and isolation recommendations. No credential-store extraction or raw private-volume access.
03 · literal
- Operator-oriented posture visibility and isolation recommendations
- No credential-store extraction or raw private-volume access
2 concrete claims
01 · abstract
Models
Live monitoring
Ongoing defensive checks while services run, with alerts when something looks wrong.
02 · mechanism
Ongoing defensive checks while services run, with alerts when something looks wrong. Fail closed where policy requires it.
03 · literal
- Ongoing defensive checks while services run, with alerts when something looks wrong
- Fail closed where policy requires it
2 concrete claims
01 · abstract
Models
Protection Posture & Step-Up MFA
Reduces algebraic state (d = s·t, h = c·q, q² + t² = 3c²) to tier + 3 independent scalars (dot, cross_norm, dot_cross).
02 · mechanism
Reduces algebraic state (d = s·t, h = c·q, q² + t² = 3c²) to tier + 3 independent scalars (dot, cross_norm, dot_cross). Triggers critical halt when tier / dot ≥ 1 outside the 20-tier positive-minima list, requires step-up MFA when orientation step |Δρ| > 0.08, and never self-authorizes a session.
03 · literal
- Reduces algebraic state (d = s·t, h = c·q, q² + t² = 3c²) to tier + 3 independent scalars (dot, cross_norm, dot_cross)
- Triggers critical halt when tier / dot ≥ 1 outside the 20-tier positive-minima list, requires step-up MFA when orientation step |Δρ| > 0
- 08, and never self-authorizes a session
2 concrete claims
01 · abstract
Models
Ratio Sovereignty (Index-to-Number)
Dynamic balancing: R = Index/Number under tension between Potential Halt (open outcomes) and Critical Halt (required stability boundary).
02 · mechanism
Dynamic balancing: R = Index/Number under tension between Potential Halt (open outcomes) and Critical Halt (required stability boundary). The ratio is the control loop that prioritizes necessary termination over unneeded potentiality.
03 · literal
- R = Index/Number under tension between Potential Halt (open outcomes) and Critical Halt (required stability boundary)
- The ratio is the control loop that prioritizes necessary termination over unneeded potentiality
outcome
Literal proof · R = Index/Number prioritizes Critical Halt over Potential Halt.
2 concrete claims
01 · abstract
Models
Compression self-correction & 2-Byte Registry
If a critical halt is pending but the index is too wide, OmniGuard compresses the sequence to tighten R.
02 · mechanism
If a critical halt is pending but the index is too wide, OmniGuard compresses the sequence to tighten R. Constant-width 2-byte internal registry keys (897 entries) cut RAM by 75.00% vs float64 and 87.50% vs 128-bit rationals (4×–8× SIMD lane density, 50.00%–66.67% column reduction).
03 · literal
- If a critical halt is pending but the index is too wide, OmniGuard compresses the sequence to tighten R
- Constant-width 2-byte internal registry keys (897 entries) cut RAM by 75
- 00% vs float64 and 87
- 50% vs 128-bit rationals (4×–8× SIMD lane density, 50
- 67% column reduction)
2 concrete claims
01 · abstract
Models
HLA v0.1 Sparse Ternary Kernels
Hyper Linear Algebra (HLA v0.
02 · mechanism
Hyper Linear Algebra (HLA v0.1) generalizes linear operators across Order, Size, and Shape. Pairwise and sorted-chamber (i ≤ j ≤ k) closed supports reduce order-3 Bhattacharya–Mesner products from O(m⁴) to O(m³) single-term evaluations (5.96× and 23.71× higher-moment storage savings at N = 500).
03 · literal
- Hyper Linear Algebra (HLA v0
- 1) generalizes linear operators across Order, Size, and Shape
- Pairwise and sorted-chamber (i ≤ j ≤ k) closed supports reduce order-3 Bhattacharya–Mesner products from O(m⁴) to O(m³) single-term evaluations (5
- 71× higher-moment storage savings at N = 500)
2 concrete claims
01 · abstract
Models
Critical over potential
Memory topology reconfigures so critical halts win over potential ones — dynamic resource allocation without expanding authority or enabling offensive action.
02 · mechanism
Memory topology reconfigures so critical halts win over potential ones — dynamic resource allocation without expanding authority or enabling offensive action.
03 · literal
- Memory topology reconfigures so critical halts win over potential ones
- dynamic resource allocation without expanding authority or enabling offensive action
2 concrete claims
01 · abstract
Models
KAM resonance shield (golden-ratio cadence)
Borrowed from orbital mechanics: KAM Theory shows orbits survive chaos when their frequency ratios are highly irrational — nearest the Golden Ratio, the most irrational number.
02 · mechanism
Borrowed from orbital mechanics: KAM Theory shows orbits survive chaos when their frequency ratios are highly irrational — nearest the Golden Ratio, the most irrational number. Concurrent model loops keep irrational cadence ratios so probes, refreshes, and retries never phase-lock into a resonant stampede.
03 · literal
- Borrowed from orbital mechanics
- KAM Theory shows orbits survive chaos when their frequency ratios are highly irrational
- nearest the Golden Ratio, the most irrational number
- Concurrent model loops keep irrational cadence ratios so probes, refreshes, and retries never phase-lock into a resonant stampede
2 concrete claims
01 · abstract
Models
Ritchie doctrine (portable substrate)
Dennis Ritchie tamed software chaos with C and Unix: one portable source of truth above the hardware.
02 · mechanism
Dennis Ritchie tamed software chaos with C and Unix: one portable source of truth above the hardware. The House applies the same wager — mind-defining source stays in one canonical layer, runtime adapters stay subordinate, so no machine quirk becomes load-bearing.
03 · literal
- Dennis Ritchie tamed software chaos with C and Unix
- one portable source of truth above the hardware
- The House applies the same wager
- mind-defining source stays in one canonical layer, runtime adapters stay subordinate, so no machine quirk becomes load-bearing
2 concrete claims
01 · abstract
Purchase
House basics (after sign-up)
Device trust, session hardening, and defensive model habits available once you create a House account on omniaxiom.
02 · mechanism
Device trust, session hardening, and defensive model habits available once you create a House account on omniaxiom.ai.
03 · literal
- Device trust, session hardening, and defensive model habits available once you create a House account on omniaxiom
2 concrete claims
01 · abstract
Purchase
Secure private network (paid)
Full mesh inventory and autonomous secure-network setup unlock only after you purchase on www.
02 · mechanism
Full mesh inventory and autonomous secure-network setup unlock only after you purchase on www.omniaxiom.com — not free on the House site alone.
03 · literal
- Full mesh inventory and autonomous secure-network setup unlock only after you purchase on www
- not free on the House site alone
outcome
Literal proof · Paid mesh unlocks only after omniaxiom.com purchase.
2 concrete claims