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Protect your digital assets in the quantum age

Privacy as security. Quantum resistance as safety.

Transaction data protected by post-quantum signatures and zero-knowledge proofs. Metadata minimized through selective disclosure.

~1ms verification50-200 TPS capabilityNIST quantum-safePrivacy available

The Tech That Actually Matters

No marketing fluff. Here's the actual cryptographic research and code that makes quantum-resistant privacy possible.

Dilithium signatures: Implemented & tested
Smart contracts: Working with gas metering
Benchmarks: Live performance testing
quantum_privacy/src/crypto.rs
//  Post-quantum signature verification
fn verify_transaction(
    tx: &Transaction, 
    sig: &DilithiumSignature
) -> bool {
    let public_key = derive_public_key(&tx.sender);
    let message = hash_transaction(tx);
    
    //  NIST-standardized post-quantum verification
    dilithium::verify(&public_key, &message, sig)
}

//  Zero-knowledge proof generation
fn generate_privacy_proof(
    amount: u64,
    nullifier: Hash,
    commitment: PedersenCommit
) -> Result {
    let witness = PrivateWitness { 
        amount, 
        nullifier 
    };
    let circuit = PrivacyCircuit::new(commitment);
    
    zk::prove(&circuit, &witness)
}
View on GitHubSecurity audit planned

Dilithium Integration

Production Ready

NIST's post-quantum signature standard fully implemented

Smart Contract VM

Complete

Ethereum-compatible contracts with quantum-safe execution

zk-STARK Privacy Proofs

Implemented

Zero-knowledge proofs with selective disclosure capabilities

Performance Benchmarks

Validated

50-200 TPS with post-quantum cryptography and privacy

Want to dig deeper?

Read our research papers, browse the code, or join our Discord to discuss post-quantum cryptography with the team building it.

Proof of Progress

Technical achievements, performance benchmarks, and research contributions that demonstrate our commitment to building production-ready quantum-safe infrastructure.

Performance vs Traditional Crypto

Signature Generation

2-6× cost vs ECDSA, but still fastProduction Ready
QuantumPrivate (Post-Quantum)
~1-2ms (Dilithium)
Traditional Crypto
0.3–0.8ms (ECDSA)

Real benchmark results; post-quantum security with acceptable overhead

Signature Verification

1.5-3× cost vs ECDSA, under 1msValidated
QuantumPrivate (Post-Quantum)
~0.5-1ms (Dilithium)
Traditional Crypto
0.3–0.6ms (ECDSA)

Verification performance measured in production environment

Range Proof Generation (64-bit)

Unique feature: privacy proofs not available on most L1sPrivacy Feature
QuantumPrivate (Post-Quantum)
125ms (Bulletproofs)
Traditional Crypto
No baseline

Privacy proofs have no L1 baseline; feature not available on most public L1s

Network Throughput (Benchmarked)

Solid performance with quantum-safe cryptoMeasured
QuantumPrivate (Post-Quantum)
50-200 TPS
Traditional Crypto
Ethereum ~15 TPS, Solana ~3,000 TPS

Actual benchmark results with post-quantum signatures and privacy features

2–6× slower than traditional crypto, but still under 1ms. 50-200 TPS with quantum safety.

Development Roadmap

NIST Dilithium Implementation

Completed

Post-quantum signature scheme fully integrated and tested

Complete

Smart Contract Virtual Machine

Completed

Ethereum-compatible VM with quantum-safe execution

Complete

Zero-Knowledge Privacy System

Completed

zk-STARK proofs with selective disclosure implemented

Complete

Performance Benchmarking

Completed

Comprehensive performance testing and optimization

Complete

Security Audit Preparation

Q1 2026

Formal verification of cryptographic implementations

Planned

Research & Publications

Post-Quantum Privacy Pools: Selective Disclosure in the Quantum Era

QuantumPrivate Research Team

IEEE Security & Privacy

Performance Analysis of Dilithium Signatures in Blockchain Applications

Core Development Team

IACR ePrint Archive

Why We're Building This

The post-quantum transition is inevitable. Most are waiting. We're building for what comes next.

The Quantum Timeline

2025
Current crypto algorithms still secure (for now)
2027-28
AI accelerates quantum development timeline
2028-30
First quantum computers break RSA/ECDSA
2030-32
Trillions in crypto assets become worthless
2033+
Chains without native post-quantum migration paths risk mass key compromise

The Inevitable Transition

Current crypto relies on math problems that quantum computers solve efficiently.RSA, ECDSA, ed25519 - the foundation of every major blockchain becomes vulnerable.

Research timelines suggest 2028-2030, but AI is accelerating quantum breakthroughs.The transition isn't a question of if, but when - and trillions in digital assets hang in the balance.

Most projects plan to "upgrade later." We believe the smart move is building quantum-safe from day one, especially as AI compresses development timelines.

Why Act Now

  • Lead time: Migration takes years, not months. By the time quantum computers break current crypto, it's too late to start over
  • Scenario window: Practical risk could arrive 2028–2030, compressed by AI acceleration
  • Compounding advantage: Earliest ecosystem wins network effects through battle-tested infrastructure

We're preparing the financial rails of the post-quantum economy: an inevitability, not a speculation.

For digital assets to be safe, they must be both private and quantum-resistant. Anything less leaves users exposed.

Our Approach

We're building the financial infrastructure for the post-quantum world. Not because it's profitable, but because it's necessary.

Quantum-First Design

Built from the ground up using NIST-standardized post-quantum cryptography. Not a retrofit - native quantum resistance.

Privacy by Default

Zero-knowledge proofs ensure transaction privacy while maintaining the ability to prove compliance when needed.

Regulatory Realism

We believe privacy and compliance aren't mutually exclusive. Designed for a world where both matter.

Our Beliefs

Privacy is protection - without it, your assets are targets.

Quantum isn't optional - physics will break today's crypto.

Compliance ≠ surveillance - cryptography enables both.

Built for all who care - people and institutions alike.

Zero-Knowledge Proofs and Disclosure Keys Enable Compliance via Cryptography

Selective Disclosure makes compliance a competitive advantage, not a compromise. Transactions remain private by default, while authorized parties can cryptographically prove specific details when regulations require it.

This isn't theoretical - it's based on proven cryptographic primitives used in production systems today.

Why Current Solutions Fail

Privacy Coins (Monero, Zcash)

  • • Transactions are completely private
  • Cannot prove compliance when asked by regulators
  • • Getting banned/delisted from exchanges
  • • Unusable for regulated institutions

Public Blockchains (Ethereum, Bitcoin)

  • • All transactions are completely public
  • Zero financial privacy
  • • Anyone can see your balance and history
  • • Compliance through surveillance

Our Solution: Selective Disclosure

Every transaction is private by default, but contains cryptographic "disclosure keys" that allow authorized parties to selectively reveal specific information when needed.

Step-by-Step Transaction Flow

1
User Creates Transaction with Commitments
User Creates Transaction with Commitments
Raw Values
$50,000
Alice → Bob
"Salary Q4"
Commitments
H(50k, r1)
H(pubkey, r2)
encrypt(memo)
// Pedersen commitments hide values
tx = {
amount_commit: pedersen(amount, r1),
recipient_commit: pedersen(pub_key, r2),
memo: encrypted_memo(details, user_key),
nullifier: hash(secret_key, serial_num)
}

What's hidden: Actual values are cryptographically committed
What's public: Commitments, encrypted memo, nullifier

2
Network Validates Using Range Proofs
Network Validates Using Range Proofs
// Bulletproof verification without revealing values
✓ range_proof.verify(amount_commit) → amount > 0
✓ dilithium.verify(signature, tx_hash) → authorized
✓ nullifier_set.check(nullifier) → no double-spend
✓ commitment_sum == 0 → balanced transaction

Validators confirm transaction validity using cryptographic proofs without seeing the actual amounts or parties involved.

3
Selective Disclosure When Needed
Selective Disclosure When Needed
Private Transaction
H(50k, r1) [locked]
H(Alice→Bob, r2) [locked]
encrypt("Salary") [locked]
↓ Selective Disclosure ↓
Court Order
Amount Only
Revealed: $50,000
Parties Hidden
Subpoena
Parties Only
Revealed: Alice → Bob
Amount Hidden
Court Order: Amount Disclosure
user.create_disclosure_proof(tx_id, "amount", private_key)
→ prove_amount: 50000 USDC
Subpoena: Party Information
user.create_disclosure_proof(tx_id, "parties", private_key)
→ prove_sender: Alice, prove_recipient: Bob

Key insight: Only the information specifically requested can be revealed. A regulator asking for transaction amounts cannot also see identities unless separately authorized.

Technical Architecture

Zero-Knowledge Proofs

Zero-knowledge proof systems including Groth16 and Bulletproofs for efficient privacy-preserving validation. Proves transaction validity without revealing any private data.

proof = zkp.generate(witness)
verify(proof, public) → PASS/FAIL

View Keys & Subpoenas

View Keys: Per-field ephemeral disclosure keys derived via HKDF from an account's disclosure secret; proofs are nonce-bound, time-scoped, non-transferable, and field-limited.

key = create_view_key(tx_id, field)
verify(key, commitment) → value

Why This Changes Everything

For Individuals

  • Financial privacy by default - no one can see your balance or transactions
  • Compliance when required - can prove income, assets, or payments to authorities
  • Protection from hackers, competitors, and surveillance

For Institutions

  • Compliance as a feature: Prove regulatory adherence without exposing proprietary data
  • Risk mitigation: Quantum-safe infrastructure protects against future threats
  • Competitive edge: Confidential transactions while maintaining audit trails
  • Future-proof: Built for post-quantum regulations before they're required

Why QuantumPrivate Wins

Unlike privacy coins that face delisting risks, we're compliant by design. Unlike public blockchains, we have comprehensive privacy features. Unlike everything else, we're quantum-safe from day one.

Unlike Monero/Zcash, QuantumPrivate is designed for compliance-privacy with regulatory compatibility
Features
QuantumPrivate
Ethereum
Monero
Zcash
TradFi
Post-Quantum Security
Protection against quantum computer attacks
Privacy Available
Comprehensive privacy features with selective disclosure
Regulatory Compliance
Built-in AML/KYC and audit capabilities
Selective Disclosure
Reveal specific transaction details to authorized parties
Enterprise Integration
HSM support, custody integrations, enterprise APIs
Transaction Speed
50-200 TPS - efficient post-quantum processing
Institutional Adoption
Banks and institutions can legally use it

One of the first protocols combining privacy + compliance + NIST-standardized post-quantum security at L1

Join theQuantum Resistance

We're building this in the open. Join us, contribute code, or just follow along as we prepare for the post-quantum world.

Testnet targeting Q1 2026

Browse the Code

Explore our open-source post-quantum implementation

Join Discord

Chat with developers building post-quantum crypto

Research Papers

Deep technical documentation and proofs

Join Testnet

Download binaries and help test the network

Join Testnet

Stay Updated on Testnet Progress

Get early access to testnet, research updates, and quantum-safety resources.

Technical updates, no spam. Unsubscribe anytime.

Get in Touch Directly

General Contact
hello@quantumprivate.org
Questions, feedback, collaboration
Technical Discussion
Discord: /quantumprivate
Real-time chat with the team
Bug Reports
GitHub Issues
Found a bug? Open an issue
Built-in AML/KYC Compliance
Regulator-Friendly Audit Trails
Selective Disclosure for Subpoenas
NIST Post-Quantum Standardized

Research consensus places RSA/ECDSA break between 2028–2030; risk horizon compressed by AI. While others scramble to upgrade their security when quantum attacks mature, you'll already be protected with QuantumPrivate.

Stay private. Stay safe. Stay quantum-ready.