QuantumSecure

Security Guaranteed byPhysics, Not Algorithms

Protect your data against quantum computers with quantum-safe cryptography. QKD for unconditional security. PQC for practical deployment.

100%
Eavesdrop Detection
256-bit
Key Length Support
NIST
PQC Standards
1,200km
QKD Distance (Micius)

The Quantum Threat is Real

Today: Adversaries are harvesting encrypted data, waiting for quantum computers to decrypt it.

Soon: Cryptographically relevant quantum computers will break RSA and ECC encryption.

Solution: Quantum-safe cryptography protects your data now and in the future.

NOW
"Harvest now, decrypt later" attacks active
2030
Recommended migration deadline
2035
NIST deprecates RSA/ECC

Classical vs Quantum Security

Classical Encryption (RSA/ECC)
Security based on computational hardness. Quantum computers will break it.
Quantum Key Distribution
Security based on physics. No-cloning theorem prevents eavesdropping.
Post-Quantum Cryptography
Math problems resistant to quantum attacks. NIST standardized.

QuantumSecure Modules

Comprehensive quantum-safe security for enterprise applications.

Quantum Key Distribution

BB84 protocol for unconditionally secure key exchange using quantum mechanics.

Try Interactive Demo

Quantum Teleportation

Transfer quantum states using entanglement and classical communication. Compress + teleport for secure messaging.

Try Teleportation Demo

Post-Quantum Cryptography

NIST-approved ML-KEM and ML-DSA algorithms resistant to quantum attacks.

Coming Soon

Quantum Random Numbers

True randomness from quantum mechanics for cryptographic key generation.

Coming Soon

Simple API Integration

Add quantum-safe security to your applications with just a few lines of code. Full SDK support for Python, JavaScript, and REST API.

  • QKD key exchange for ultimate security
  • NIST PQC algorithms (ML-KEM, ML-DSA)
  • Quantum random number generation
  • Hybrid classical-quantum modes
from quantumflow import QuantumSecure

# Initialize QKD session
qkd = QuantumSecure.QKD()
session = qkd.create_session(
    protocol="bb84",
    key_length=256
)

# Exchange key with recipient
shared_key = session.exchange(
    recipient="[email protected]"
)

# Use key for encryption
cipher = QuantumSecure.encrypt(
    message=data,
    key=shared_key
)

Ready to Go Quantum-Safe?

Start with our free tier. No quantum computer required - our cloud handles the quantum operations.