Quantum Internet Protocol

Experimental

The World's First Quantum Internet

Enable distributed quantum computing across the globe with quantum teleportation, entanglement distribution, and topologically protected routing. Connect to 8 global quantum nodes for unprecedented computational power.

Quantum teleportation with Bell measurements
Global entanglement distribution network
Topologically protected quantum routing
Space-based quantum links (coming soon)
8
Nodes
95%
Fidelity
16
Links
Distance

Global Quantum Network

MIT
Boston, USA
Processing
Memory
CERN
Geneva, Switzerland
Processing
Entanglement
Oxford
Oxford, UK
Processing
Memory
Tokyo
Tokyo, Japan
Memory
Repeater
Sydney
Sydney, Australia
Processing
Teleportation
Waterloo
Waterloo, Canada
Entanglement
Repeater
Singapore
Singapore
Processing
Teleportation
Zurich
Zurich, Switzerland
Memory
Processing

Core Capabilities

Quantum Teleportation

Instantly transfer quantum states between nodes using entanglement and classical communication.

ProtocolBennett-Brassard
Bell StatesΦ+, Φ-, Ψ+, Ψ-
Fidelity70-99%
Entanglement Distribution

Generate and distribute Bell pairs across the network for secure communication and computation.

Generation Rate1000 pairs/s
Coherence Time10-100ms
Max DistanceGlobal
Quantum Routing

Topologically protected routing ensures reliable quantum communication even with node failures.

AlgorithmQ-Dijkstra
Redundancy3x paths
Latency<100ms

Implementation Guide

Node Setup & Teleportation
Create quantum nodes and perform basic teleportation
import { QuantumInternetNode, quantumInternet } from '@q-intercept/sdk';

// Create a quantum node
const myNode = new QuantumInternetNode(
  'my-quantum-node',
  { latitude: 37.7749, longitude: -122.4194 }, // San Francisco
  [
    { type: 'processing', fidelity: 0.98, maxQubits: 100, coherenceTime: 10000 },
    { type: 'memory', fidelity: 0.95, maxQubits: 50, coherenceTime: 50000 }
  ]
);

// Register node with global network
quantumInternet.registerNode(myNode);

// Teleport quantum state to MIT node
const quantumState = {
  numQubits: 1,
  amplitudes: [
    { real: 0.707, imag: 0 },
    { real: 0.707, imag: 0 }
  ]
};

const mitNode = quantumInternet.getNode('qnode-mit');
const result = await myNode.teleport(quantumState, mitNode);

console.log(`Teleportation success: ${result.success}`);
console.log(`Fidelity: ${(result.fidelity * 100).toFixed(1)}%`);
console.log(`Duration: ${result.duration}ms`);

Revolutionary Applications

Distributed Quantum Computing

Execute quantum algorithms across multiple nodes for problems too large for a single quantum computer.

Quantum Secure Communication

Enable perfectly secure communication using quantum key distribution and teleportation protocols.

Quantum Cloud Services

Offer quantum computing as a service with automatic routing to the best available quantum resources.

Quantum Sensor Networks

Create ultra-sensitive distributed quantum sensors for gravitational wave detection and other applications.

Network Performance

Teleportation Metrics
Success Rate98.5%
Average Fidelity94.2%
Throughput1000 qubits/s
Network Statistics
Active Nodes8
Quantum Links16
Active Entanglements124
Total Distance40,075 km
Network Uptime99.95%
Future Expansion
  • Satellite quantum nodes for global coverage
  • 100+ nodes by 2025
  • Quantum repeaters for unlimited distance
  • Error correction for 99.99% fidelity