The first sovereign bank & blockchain that survives the quantum era.

When quantum computers break RSA and ECDSA, every classic bank, wallet and chain becomes readable and forgeable. INKG already runs on real NIST post-quantum cryptography — on our own sovereign infrastructure, zero third parties, zero foreign tax.

ML-KEM-768 (CRYSTALS-Kyber) key exchange + ML-DSA-65 (CRYSTALS-Dilithium) signatures — delivered as a sovereign service. Open the live lab →

◆ Live Quantum Shield — reacting to real posture

🛡️ LIVE QUANTUM SHIELD

LIVE ML-KEM-768 · ML-DSA-65

guarded node protected wallet quantum probe (absorbed) wallets … · anchors … · readiness …/100 · service …

⚛️ Quantum Attack Simulator — watch Shor's algorithm break RSA, then fail against us

⚛️ Quantum Attack Simulator

Educational demo · real mathematics

This is a visualization of a real mathematical fact, not live quantum hardware and not fake telemetry: a large fault-tolerant quantum computer running Shor's algorithm would factor RSA-2048 and forge ECDSA — but Shor's algorithm has no traction on lattice problems (Module-LWE / Module-SIS), which is exactly why NIST standardized ML-DSA-65 and ML-KEM-768. Launch the attack and watch the difference.

Same attack, two targets. One breaks. One holds.

🏦Classic crypto (the whole internet today)

RSA-2048 · ECDSA · secp256k1

Shor factorizationattack progress

🦅INKG sovereign crypto

ML-DSA-65 · ML-KEM-768 (lattice)

Shield integrityholding

Ready. Press “Launch quantum attack”.

Why RSA breaks and lattice doesn't. Shor's algorithm turns factoring and discrete-log into a period-finding problem a quantum computer solves in polynomial time — that kills RSA, ECDSA, ECDH, secp256k1. Lattice schemes (ML-DSA-65, ML-KEM-768) rest on Module-LWE / Module-SIS, which are not hidden-subgroup problems, so Shor gives no speedup and the best known quantum attack is essentially as slow as the classical one. That is the entire reason INKG runs on lattice cryptography — and you can prove it yourself in the live lab below.

📡 Live post-quantum activity

📡 Sovereign PQC operations — live LIVE sigs 0 · wallets … · anchors …

Each “keypair minted live” line is a real ML-DSA-65 keypair generated on our sovereign node this second (proof the service is up). Wallet and anchor totals are the real live figures from the sovereign bank.

Live sovereign quantum-safe posture

Readiness score— / 6 controls safe

Mamey anchors signed (ML-DSA-65)—

PQC service (FIPS 203/204)—

Coverage by component

loading real posture…

Migration is prioritized for long-lived assets (anchors, custody) first — numbers are read live from the sovereign bank, not estimates.

The quantum threat is real — and it is a "harvest now, decrypt later" problem

☠️ What breaks under quantum

RSA · ECDSA · ECDH · secp256k1 — the cryptography behind virtually every bank, wallet, TLS session and blockchain today. Shor's algorithm on a large-enough quantum computer factors and forges these. Adversaries are harvesting encrypted traffic now to decrypt it later, and any long-lived signature (bonds, deeds, custody) can be forged retroactively.

🛡️ What INKG runs instead

ML-KEM-768 + ML-DSA-65 — the lattice-based schemes NIST standardized (FIPS 203 / FIPS 204) precisely because no known quantum or classical attack breaks them. Our wallets enroll a post-quantum keypair: the bank keeps only the public key, the citizen keeps the secret. Signatures and key exchange are quantum-resistant end to end.

What Quantum-Proof Sovereign delivers

🔑 Post-quantum wallets

Every wallet can enroll an ML-DSA-65 identity. Transactions are signed with a lattice signature no quantum computer can forge. The bank stores only the public key — the citizen holds the secret.

🔐 Quantum-safe key exchange

ML-KEM-768 encapsulation for confidential settlement channels, so session keys can't be recovered from harvested traffic — defeating "harvest now, decrypt later".

🦅 Sovereign & open

Runs 100% on our own nodes, open-source (@noble/post-quantum), auditable, no licenses, no foreign cloud. Your quantum-safe rails stay in your jurisdiction.

Proof — sign & verify with real post-quantum crypto, right now

Not a simulation. Every button calls our live service (/api/pqc/keypair · /sign · /verify, NIST FIPS 203/204). Generate a key, sign your own message, verify it — then tamper with it and watch the signature fail.

⚡ Live post-quantum lab ① Keypair ② Sign ③ Verify ④ Tamper

1 · Algorithm

A brand-new lattice keypair is produced on our sovereign node each time.

Public key

Secret key stays in your browser

2 · Message to sign

Generate a signing keypair (ML-DSA-65) first.

Signature

Why sovereign quantum-proof is worth more

Regulators are already mandating PQC migration — NIST timelines deprecate RSA/ECDSA; get certified ahead of the deadline.
Long-lived assets need it first — bonds, custody, land titles and settlement outlive the arrival of quantum computers.
Sovereign entity = tax-efficient — paid in sovereign tokens, settled on your own rails, no foreign processor.
Open source, auditable, no lock-in — you own the whole post-quantum stack, forever.

Pricing — sovereign grade

Quantum-Safe Audit

$15,000

Post-quantum readiness assessment
Inventory of RSA/ECDSA exposure
Harvest-now-decrypt-later risk map
Migration roadmap + report

Quantum-Proof Migration

$45,000

Migrate keys & signatures to ML-KEM-768 + ML-DSA-65
Wallet PQC enrollment
Quantum-safe settlement channels
Hybrid rollout (classic + PQC)
Sovereign deployment

Sovereign Certification

$120,000/yr

Annual quantum-proof certification
On-chain attested credential
Continuous PQC posture monitoring
Compliance-ready evidence pack
Renewal + re-attestation

Enterprise

$250,000

Full PQC stack, on-prem sovereign
Custom key ceremony & HSM
Dedicated engineering support
Bank / exchange integration
SLA + priority response

Settled in sovereign tokens (WUSD 1:1, WMP, IGT…) via sovereign checkout — 1% burned to the treasury. No foreign processors.