Simulate Quantum Attack via this form

Simulate Quantum Attack on Encryption
Simulation Results

Explanation

This simulator estimates the time to break encryption using Shor's algorithm on a quantum computer. Based on research from Google Quantum AI and NIST:

  • RSA-2048: ~20M qubits to break in <1 week
  • ECC-256: ~7.5K qubits to break in <1 hour
Learn More (NIST)

Quantum Threat Simulator

Simulate quantum attacks, estimate break times, and plan your post-quantum migration

The Quantum Threat is Real

Large-scale fault-tolerant quantum computers will break today’s public-key cryptography using Shor’s algorithm (for RSA/ECC) and Grover’s algorithm (for symmetric crypto and hashes).

Q-Day — the day a cryptographically relevant quantum computer (CRQC) exists — is approaching faster than expected. Recent breakthroughs in error correction and qubit scaling suggest Q-Day could arrive by 2030–2035.

Harvest Now, Decrypt Later (HNDL): Adversaries are already collecting encrypted data to decrypt later with quantum computers.

Quantum Attack Models

Algorithm Target Classical Cost Quantum Cost Impact
Shor's RSA, ECC, DH ~2128 (factoring) ~29 qubits, ~1 hour Breaks all asymmetric crypto
Grover's AES, SHA-256 2256 search 2128 search Halves key strength

Quantum Computer Projections (2025–2040)

2025
~1,000 noisy qubits
2030
~10,000 logical qubits
2033
Q-Day: RSA-2048 broken
2035
AES-128 vulnerable
2040
Full symmetric break

NSA/CISA Recommendation: Migrate to post-quantum cryptography by 2030 for data with 10+ year confidentiality.

Break Time Estimator

Use our interactive simulator to estimate how long your current crypto will survive:

Algorithm Key Size Break Time (2033 CRQC) Recommendation
RSA 2048-bit < 1 hour URGENT: Migrate
ECC 256-bit < 1 day URGENT: Migrate
AES 128-bit ~10 years Upgrade to AES-256
SHA-256 ~2128 ops Use SHA-384/512

Migration Readiness Checklist

  1. Inventory: List all cryptographic assets (TLS, VPN, code signing)
  2. Prioritize: Focus on long-lived data (certificates, firmware)
  3. Hybrid Mode: Deploy ECDSA + ML-DSA and X25519 + ML-KEM
  4. Test: Use liboqs, OpenSSL 3.0+
  5. Monitor: Track quantum progress via GRI Quantum Threat Timeline

Quantum Threat Simulator: Live Tool

Launch the Quantum Threat Simulator

Enter your crypto parameters and see real-time risk assessment

Input: RSA-2048, 10-year data
Output: CRITICAL: Will be broken in 2033
Recommendation: Migrate to ML-DSA-65 + ML-KEM-768

Simulator Features:

  • Real-time Q-Day countdown
  • Break time calculator (Shor/Grover)
  • PQC readiness score
  • Custom migration timeline
  • Exportable risk report

PQC Migration Roadmap

Phase Timeline Action
1. Awareness 2025 Train teams, inventory crypto
2. Hybrid 2026–2028 Deploy ECC + ML-DSA/KEM
3. PQC-Only 2029–2033 Phase out classical algorithms
4. Quantum-Safe 2035+ Full post-quantum stack

Standards & Resources

Conclusion

The quantum threat is not science fiction — it’s a when, not if. With Q-Day projected within 8–10 years, organizations must act now to protect data that needs to remain confidential beyond 2033.

Use the Quantum Threat Simulator to:

  • Assess your current risk
  • Plan migration timelines
  • Justify PQC budgets
  • Stay ahead of the quantum curve

Start your quantum risk assessment today — the clock is ticking.

References & Further Reading

  1. NIST IR 8545: Report on Post-Quantum Cryptography Migration
  2. Mosca, M. (2023). "Cybersecurity in an Era with Quantum Computers"
  3. Global Risk Institute: Quantum Threat Timeline Report 2025

Don’t wait for Q-Day. Simulate the threat. Secure the future.

Quantum-ready. One simulation at a time.