System Architecture
The Quantum Network Research project is built on a five-layer architecture designed to systematically investigate quantum phenomena in networked systems. This architecture provides a comprehensive framework for exploring quantum teleportation, temporal effects, and information clustering.
Quantum Phenomena Visualization
Our visualization approach helps conceptualize the complex quantum phenomena being studied.
Figure 2: Visual representation of quantum teleportation, temporal effects, and information clustering phenomena.
Each layer of our system architecture is designed with specific responsibilities and interfaces with adjacent layers to create a complete quantum networking stack. Below, we detail each layer and its components.
Physical Infrastructure Layer
This foundational layer provides the physical medium and hardware components necessary for quantum networking. Building on recent breakthroughs in quantum teleportation over conventional internet infrastructure, our physical layer integrates both quantum and classical communication channels.
Components
Fiber Optic Network
The fiber optic infrastructure serves as the physical medium for both quantum and classical data transmission. Our design calls for a minimum 30km fiber loop with wavelength division multiplexing that allows quantum and classical signals to coexist.
- Optical splitters for traffic mirroring and analysis
- Wavelength filters for quantum channel isolation (1550nm band)
- Temperature-stabilized fiber housing (±0.5°C)
Biometric Devices
A network of sensors to collect physiological data from human participants, allowing us to investigate potential correlations between quantum information patterns and human biological systems.
- Heart rate variability (HRV) monitors
- Electroencephalogram (EEG) headsets
- Galvanic skin response sensors
Computing Hardware
High-performance computing systems that provide the processing capabilities required for quantum simulations, data analysis, and real-time monitoring.
- 32+ core high-performance computing cluster
- FPGA-based quantum random number generators
- Network traffic analyzers with nanosecond timestamp precision
Quantum-Classical Network Layer
This layer manages the transmission of both quantum and classical information across the physical infrastructure. It handles entanglement distribution, quantum state transmission, and the classical communication necessary for quantum teleportation protocols.
Components
Quantum Channel
Manages the transmission of quantum information, primarily through entangled photons, implementing quantum key distribution and entanglement distribution protocols.
- BB84 and E91 quantum key distribution protocols
- Entanglement distribution management
- Bell state measurement capabilities
Classical Channel
Handles conventional network traffic while supporting quantum operations through specialized protocols and timing systems.
- TCP/IP stack with quantum protocol extensions
- Precision timing protocol implementation
- Metadata exchange for quantum teleportation coordination
Network Monitor
Tracks all network activity and correlates quantum and classical events across the infrastructure.
- Deep packet inspection for classical traffic
- Quantum channel noise analysis
- Timing correlation between quantum and classical events
Quantum Information Processing Layer
This layer implements the core quantum protocols and processing mechanisms that enable our key research areas: quantum teleportation, temporal effects, and information clustering.
Components
Teleportation Module
Implements quantum teleportation protocols between network nodes, enabling the transfer of quantum states across the network without physical transmission of quantum particles.
- Bell state preparation and measurement
- Classical channel coordination
- Teleportation fidelity verification
Temporal Effects Module
Analyzes and simulates temporal anomalies in quantum information flow, investigating phenomena where measurement outcomes can appear to influence initial conditions.
- Delayed-choice experiment implementations
- Retrocausal correlation detection
- Wheeler-DeWitt equation simulation
Quantum Clustering Module
Detects emergent information structures across the quantum network, identifying patterns that arise from quantum correlations between multiple nodes.
- Quantum mutual information calculation
- Clustering algorithms for information density
- Field theory simulations for quantum dynamics
Analysis and Correlation Layer
This layer provides tools and methodologies for analyzing quantum phenomena and correlating them with other systems, including human biometrics. It focuses on extracting meaningful patterns and insights from complex quantum data.
Components
Entanglement Analysis
Measures and characterizes quantum entanglement properties across the system, providing metrics and visualizations of quantum correlations.
- Entanglement entropy calculation
- Bell inequality violation detection
- Entanglement distillation metrics
Biometric Correlation
Correlates human physiological states with quantum information patterns, investigating potential relationships between quantum systems and biological processes.
- Time-series correlation analysis
- Group synchronization detection
- Anomaly detection in human-quantum interactions
Pattern Detection
Identifies significant patterns in quantum-classical interactions across the system, using advanced algorithms to recognize emergent structures.
- Wavelet analysis for time-frequency correlations
- Information flow directionality assessment
- Emergent pattern classification
Visualization and Interface Layer
This layer provides intuitive representations of quantum states, correlations, and system operations. It makes complex quantum phenomena accessible for research and analysis through interactive visualizations.
Components
Quantum State Visualizer
Provides intuitive representations of quantum states and operations, helping researchers understand and manipulate quantum information.
- Bloch sphere visualization for qubits
- Quantum circuit diagram generation
- Entanglement network mapping
Correlation Dashboard
Displays relationships between quantum information and other systems, particularly human biometrics, through interactive visualizations.
- Correlation matrix heatmaps
- Time-series alignment views
- Statistical significance indicators
Real-time Monitor
Provides live monitoring of ongoing quantum network operations and experiments, allowing researchers to track system performance and experiment progress.
- System health and performance metrics
- Event logging and alerting
- Experiment progress tracking