NovaQ Documentation
  • Welcome to NovaQ
  • Overview
    • Description
    • Vision
    • Market Opportunity
  • NovaQ Protocol
    • What is the NovaQ Protocol?
    • Protocol Architecture
    • Security Design
    • How the Protocol Works?
  • Novaq Ecosystem
    • Model Integrity Verifier
    • AI Prompt Optimizer
    • Smart API Response Tester
  • Roadmap Development
    • Short-Term Goals
    • Mid-Term Goals
    • Long-Term Goals
  • Others
    • Tokenomics
    • Links
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  1. NovaQ Protocol

Protocol Architecture

Protocol Architecture

NovaQ Protocol is structured into three primary functional layers:

1. Verification Layer

Ensures AI model authenticity and deployment integrity using simulated enclave attestation and checkpoint validation. Key features:

  • Hash-bound model identifiers (e.g., SHA3, BLAKE3)

  • Simulated Trusted Execution Environments (TEEs) for model loading

  • Merkle Trees to timestamp and anchor logs of deployments

  • Multi-Checkpoint Proofs (MCP): Verifies model hashes across virtual nodes

2. Optimization Layer

Enhances prompt and query inputs to ensure clarity, compliance, and safety — aligned with LLM response mechanics. This includes:

  • Lattice-inspired phrasing filters for post-quantum grammar sanitization

  • Redundancy minimization via NLP compression

  • Bias/injection mitigation via adversarial prompt stripping

  • Compliance-aware tagging (flags risky/ambiguous prompts)

3. Stress Testing Layer

Simulates runtime stress and adversarial conditions against APIs or LLM endpoints using WebAssembly-like logic and quantum-adversarial patterns:

  • Fuzz-style injection of malformed and hostile prompts

  • Delay & timeout simulations under load

  • NLP-based fault detection across model outputs

  • Logging of error boundaries and API behavior profiles

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Last updated 3 days ago