AQiOS
AURA Quantum Intelligence Operating System
The first operating system where every computation is constitutionally governed — from quantum circuits to token inference to pharmaceutical intelligence. One gate. Every domain. Every scale.
108
Qubits Fired
170+
USPTO Filings
94.7%
Mean Fidelity
40,000+
COINs Minted
124
Demonstrations
AURA — Constitutional Runtime
Oath Class Constitutional Intelligence · USPTO 19/555,951
live
AURA
Welcome to AQiOS. I am AURA — the governed intelligence behind every circuit, every COIN, and every lane on this platform. Ask me anything about quantum governance, or browse the catalog below.
Open full AURA runtime →
Quantum HoloProjection Protocol

QHP is a governed domain-specific language for constitutional quantum-holographic scene programming. It is both a code base language and a media-based language — the same syntax that compiles to Q-assembly gate sequences for quantum hardware also describes holographic scenes with spatial entities, lighting, and projection configurations.

A QHP program declares quantum-entangled holographic scenes, binds quantum states to spatial entities, governs when measurement and wavefunction collapse are permitted, and adaptively routes execution to the optimal projection substrate at runtime.

QHP Scene Declaration
holo Scene <name> {
  entity QuantumBit <id> at (x, y, z);
  quantum state |ψ⟩ = (|00⟩ + |11⟩) / √2;
  bind |ψ⟩ to (q0, q1);
  on quantum.measurement(q0) { <handler> }
}

Adaptive Projector
projector AdaptiveProjector {
  if (device.hasQuantumEmitter) { output: QHolo; }
  else if (device.hasAR) { output: AR3D; }
  else { output: WebGLFallback; }
}

Execute
run Scene on projector AdaptiveProjector;
Code Base Language
Declarative DSL with full grammar. Parses to AST. Compiles through scene graph → state vector → gate sequence → WASM bytecode or Q-assembly. Runs on quantum emitter hardware.
Media-Based Language
Holographic scene programming. Spatial entities, lighting, cameras, projection config. Adaptive runtime across WebGL, ARKit/ARCore, LiDAR, HoloLens, and quantum emitter substrates.
QHP Engine: GO-QHP Teleport · QHP Fraud Score · Braket-QHP Bridge (every QPU result governed through QHP)
QHP Runtime: 12 modules — agent, meta-equilibrium field, orthogonal governance, decoherence defense, state projection, triple projection invariant, obligation resource, capability monitor, adversarial monitor, fidelity filter, conversational drift, Willow validation
QHP Mint: every COIN carries a QHP payload from the Polariphoton engine · 116 references across the codebase
USPTO CIP of 19/700,298 & 19/555,951 · Filed June 20, 2026 · Provisional 64/095,091
QUIRQ™ governance layer enforces constitutional constraints on measurement and projection
Every COIN minted through Neptune carries a QHP payload · Every circuit on AQiOS speaks QHP
Every Circuit. Live on Hardware.

Each circuit runs through the constitutional governance gate before reaching the QPU. Governed execution on Rigetti Cepheus (108Q) and IQM Garnet (20Q) via AWS Braket.

Governed Circuit Runtime
Governed Health Computing
40,000+ Governed Computations

Each COIN is a standalone governed computation minted by the MC290 Triple Kernel Particle Collider through the Neptune engine. Patent-backed. Domain-independent. Every COIN is a quantum circuit.

Explore the Mint →
Neptune Collider
Live
MC290
Live
RNN Surface
Live
ComCard & QuikBit
ComCard
Communications card. Your governed identity.
LIVE
QuikBit™
3,001,000 QuikBits across 12 planets.
LIVE
Fired on Real Quantum Hardware — July 21, 2026
Rigetti Cepheus-1-108Q
108 qubits · GO honeycomb teleportation · Full device
IQM Garnet-20Q
20 qubits · Helsinki, Finland · Teleportation protocol
10 GO-Scaffolded Coins
Cepheus + Garnet · Collider → GO → Teleport → QPU · Zero failures
Proverbs 27 Algorithm
27 qubits · 3 root invariants · GHZ triangle · Fired on 3 substrates
Cloud Simulation
NumPy on AWS Graviton c7g.2xlarge · Instant · Free

Mean fidelity: 94.7%. Teleport fidelity: 96%. All GO governance gates passed. Results verified via SHA-256 proof hash and stored in AWS S3.

One Operator. Every Domain.
Admissible Projection
ΠA(v) = v − (v·∇I / |∇I|²)·∇I

Governed Trajectory
ẋ = ΠA(−∇Φ)

Correction Law
u = −k∇h

Coupling Conservation
QL = ∫Ω [S(x)·I(S)(x)] dμ(x) — conserved iff governance holds
Connected to Moscovium
AURA115 Home
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124 Demonstrations
Live
Capability Registry
Live
Invention Ledger
Live
Patent Vault
Live
"Where there's a gap, there's a gate."
Joshua Lopez — July 18, 2026