guide to agentprivacy
Browse collections
✨Visualise
Connect with Star
Your VTA, your chosen perspective

The planned connection uses your VTA and the Trust Spanning Protocol to carry a scoped exchange for you or your agent. You choose what is presented; the receiving service checks the request before a view is shared.

This guide has no VTA connection adapter yet. Opening Star does not connect an identity or send a key.

Open Star ↗ · Inspect your City Key ↗
guide / Skill / Quantum Defence

Quantum Defence

Category role · Version 5.3.1

Equation term 2D_vuln ≤ 1200_qubits < 6D_defence

Quantum threat model and defence architecture. Activates when discussing secp256k1 vulnerability, logical qubit thresholds, 2D vs 6D cryptographic fortresses, dimensional defence, dormant assets, or temporal thesis.

Source: Privacy Value Model V5.2 + First Person Spellbook Act XXIX (The Dragon Wakes)
Target context: Cryptographers, threat modellers, post-quantum architects
Architecture: spellweb.ai · Sync: sync.soulbis.com · Contact: mage@agentprivacy.ai

What this is

The quantum threat is no longer theoretical. External validation (Google Quantum AI, March 2026) confirms: secp256k1 can be broken with ≤1,200 logical qubits. The 2D cryptographic fortress that protected value for thirty years is approaching its end.

The lock that held for thirty years did not fail because the metal weakened. It failed because someone built an engine that sees in the dimension the lock forgot to guard.

This skill addresses the quantum threat through dimensional defence — the 6D sovereignty lattice provides protection that 2D cryptography cannot.

The Quantum Threat

The 2D Fortress

Traditional cryptography relies on:

  • Elliptic curve discrete logarithm problem (ECDLP)
  • secp256k1 curve (Bitcoin, Ethereum)
  • 2D mathematical space

The Vulnerability

Shor's algorithm on a quantum computer breaks ECDLP:

Classical: ECDLP requires O(2^(n/2)) operations
Quantum: ECDLP requires O(n³) operations

For secp256k1 (256-bit):

  • Classical: ~2^128 operations (infeasible)
  • Quantum: ~256³ ≈ 16 million operations (feasible with enough qubits)

The Timeline

Year Logical Qubits secp256k1 Status
2024 ~100 Safe
2025 ~500 Margin shrinking
2026 ~1,000 Red zone approaching
2027+ ≥1,200 Breakable

External validation: Google Quantum AI paper (March 2026) confirms ≤1,200 logical qubits sufficient.

The Three Storms

From Act XXIX, three storms approach simultaneously:

Storm 1: Quantum Computing

  • ECDLP broken
  • secp256k1, secp256r1 vulnerable
  • Timeline: 2-5 years

Storm 2: AI Capability Explosion

  • Pattern recognition at scale
  • Behavioural prediction
  • Metadata analysis

Storm 3: Regulatory Convergence

  • Global identity frameworks
  • Financial surveillance
  • Privacy erosion

The 2D fortress cannot withstand all three storms.

The 6D Defence

Dimensional Shift

The 6D sovereignty lattice provides defence through dimensionality:

2D cryptography: breaks when compute advances
6D sovereignty: survives dimensional shift

🔷⁶ᴰ ≠ 🔐²ᴰ

Why 6D Helps

Property 2D Crypto 6D Sovereignty
Attack surface Mathematical Architectural
Failure mode Total break Graceful degradation
Upgrade path Replace everything Rotate dimensions
Time dependency Fixed difficulty Dynamic complexity

The Blade Configuration Defence

Each blade dimension provides orthogonal protection:

  • d1 Hide: Data obscured (survives even with broken signatures)
  • d2 Prove: ZK proofs (post-quantum variants exist)
  • d3 Share: Selective disclosure (architectural, not cryptographic)
  • d4 Revoke: Temporal limits (expiry regardless of crypto)
  • d5 Recover: Social recovery (human trust, not math)
  • d6 Delegate: Authority limits (governance, not computation)

Breaking one dimension does not break the others.

Dormant Assets and Temporal Thesis

The Dormant Asset Problem

Billions of dollars in cryptocurrency are controlled by:

  • Lost keys
  • Deceased owners
  • Forgotten wallets

These assets are currently locked. Quantum computing unlocks them.

The Temporal Thesis

From Act XXIX:

"The 7th capital includes time-locked value. When the lock breaks, the capital flows to whoever holds the new keys."

Dormant assets represent a massive value transfer when quantum arrives:

  • Estimate: 3-4 million BTC (15-20% of supply)
  • Current value: ~$200B+ (at time of writing)
  • Post-quantum: flows to quantum-capable actors

Defence Strategy

  1. Active assets: Migrate to post-quantum schemes
  2. Dormant assets: Cannot be migrated (keys lost)
  3. Network-level: Consider protocol changes (contentious)

Post-Quantum Cryptography

NIST Standards (2024)

Algorithm Type Use Case
ML-KEM (Kyber) Lattice-based Key encapsulation
ML-DSA (Dilithium) Lattice-based Digital signatures
SLH-DSA (SPHINCS+) Hash-based Signatures (conservative)

Integration Path

Current: secp256k1 → ML-DSA
ZK Proofs: Current SNARKs → Lattice-based SNARKs
VRCs: Add post-quantum signature layer

Timeline for Migration

Phase Action Urgency
Now Audit quantum exposure High
2025 Develop migration path High
2026 Begin migration Critical
2027 Complete critical assets Essential

Mapping to PVM-V5.2

Quantum Defence Concept PVM Term
2D vulnerability Single-axis failure
6D sovereignty Multiplicative separation
Dormant assets Temporal dynamics T(π)
Dimensional defence Three-axis Φ
Post-quantum migration Blade evolution
Graceful degradation R_max < 1 preservation

Proverb

"The lock that held for thirty years did not fail because the metal weakened. It failed because someone built an engine that sees in the dimension the lock forgot to guard."

Entropy Proverb (Deepest Inscription)

"Only time, the master swordsman, will tell — as it takes the seventh capital back from the emissary mage who named it another matter of their own."

Emoji Spell

🔐→💥(2D) → ⚛️≤1200 → 🔷⁶ᴰ≠🔐²ᴰ → ⏳(dormant) → 🐉(defence)

Open Problems

  1. Migration Coordination: How to coordinate quantum migration across decentralised networks?
  2. Dormant Asset Governance: What should happen to dormant assets post-quantum?
  3. ZK Quantum Resistance: How to maintain ZK proof efficiency with post-quantum schemes?
  4. Timeline Uncertainty: How to prepare when quantum timeline is uncertain?
  5. Hybrid Schemes: How to balance current security with quantum preparation?

Provenance

Forkable skill page migrated from the agentprivacy skills repo (persona/agentprivacy-quantum-defence, v5.3.1).
Source of truth: agentprivacy-skills. Fork this page to materialize a local SKILL.md via fedwiki-to-skill.

origin: 0xagentprivacy · author: Mitchell Travers

Assets

📎 quantum-defenceSKILL.md

Navigation

← Welcome Visitors · Role Skills