quantum-signing

Sign AI agent operations with ML-DSA-65 and SHA3-512 fingerprints.

1|Updated Jan 15, 2026
One-click install
npx skills add https://github.com/pagerguild/guilde-lite --skill quantum-signing
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: quantum-signing
Source: https://github.com/pagerguild/guilde-lite/tree/main/marketplace/plugins/agentic-flow/skills/quantum-signing
Command: npx skills add https://github.com/pagerguild/guilde-lite --skill quantum-signing

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill includes references (resource) components.

What problem does it solve?

Implement quantum-safe cryptographic signing to protect operation integrity in AI agent ecosystems and coordination flows.

Core Features & Use Cases

  • Quantum-resistant signing with ML-DSA-65 for operation signing
  • Fast integrity checks with SHA3-512 fingerprints
  • Optional data encryption using HQC-128
  • Use Case: Signed agent operations, verifiable audit trails, and commit signing

Quick Start

Initialize a quantum-safe signing workflow to securely sign agent operations.

Frequently Asked Questions about quantum-signing

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I implement quantum-safe signing for AI agent operations?

Quantum-safe signing for AI agent operations is implemented using ML-DSA-65 to secure coordination flows, audit trails, and commit signing against post-quantum threats. It leverages SHA3-512 fingerprints for fast integrity checks across distributed systems.

What is ML-DSA-65 and when do I need it for digital signatures?

ML-DSA-65 is a post-quantum cryptographic algorithm used for digital signatures. You need it when securing agent operations, verifiable audit trails, and trajectory integrity in distributed AI systems against quantum computing threats.

Can I use HQC-128 encryption with quantum-safe digital signatures?

Yes, HQC-128 can be used as an optional data encryption mechanism alongside ML-DSA-65 quantum-safe signing. This combination provides both operation signing and encrypted data protection within AI agent ecosystems.

Does quantum-signing work for generating verifiable audit trails in distributed AI systems?

Quantum-safe signing directly supports verifiable audit trails in distributed AI systems by applying ML-DSA-65 to agent operations. It ensures trajectory integrity and commit signing remain cryptographically verifiable against post-quantum attacks.

What's the best way to verify operation integrity in distributed AI agent ecosystems?

The best way to verify operation integrity in distributed AI agent ecosystems is using SHA3-512 fingerprints for fast integrity checks, combined with ML-DSA-65 quantum-safe signing to protect coordination flows and audit trails.

Do I need post-quantum cryptography for agent coordination and commit signing?

Post-quantum cryptography is needed for agent coordination and commit signing if you require long-term trajectory integrity and protection against future quantum attacks. ML-DSA-65 provides quantum-resistant digital signatures for these operations.