Project ORION
High-Altitude Mesh Telemetry Systems
Revolutionizing communication capabilities for extreme altitude operations through adaptive mesh networking and advanced signal processing.
Mission Overview
Project ORION addresses critical communication challenges in stratospheric and near-space environments where traditional communication systems face significant limitations. Our research focuses on developing self-healing mesh networks that can maintain robust connectivity at altitudes exceeding 60,000 feet, supporting both civilian research and specialized operational requirements.
Technical Parameters
Operational Environment
| Operating Altitude | 20,000 - 80,000 feet ASL |
| Temperature Range | -65°C to +50°C °C |
| Atmospheric Pressure | 0.01 - 0.5 atm |
| Wind Resistance | Up to 150 mph |
Communication Performance
| Data Rate (Max) | 10 Mbps per node |
| Network Range | 50 km line-of-sight |
| Node Capacity | 64 active nodes |
| Latency (Avg) | < 50 ms |
Reliability Metrics
| Uptime Target | 99.9 % |
| Self-Healing Time | < 30 seconds |
| MTBF | 8,760 hours |
| Redundancy Level | Triple backup paths |
Core Research Objectives
Atmospheric Communication Resilience
Develop protocols that maintain connectivity despite atmospheric interference, ionospheric variations, and extreme weather conditions.
Success Metrics
- 99.9% uptime in stratospheric conditions
- Automatic recovery from 95% of connection failures
Scalable Mesh Architecture
Create self-organizing network topologies that can dynamically adapt to node additions, failures, and mobility patterns.
Success Metrics
- Support for 64+ simultaneous nodes
- < 30 second topology reorganization
Ground Integration Compatibility
Ensure seamless integration with existing terrestrial communication infrastructure and protocols.
Success Metrics
- Compatible with 95% of standard protocols
- < 100ms ground-to-air latency
Power Efficiency Optimization
Minimize power consumption to extend operational duration in remote deployment scenarios.
Success Metrics
- 72+ hour battery life per node
- < 5W average power consumption
Core Technologies
Software Defined Radio (SDR)
Flexible radio frequency processing enabling dynamic protocol adaptation and spectrum optimization.
Applications
- Adaptive modulation
- Interference mitigation
- Spectrum sensing
Atmospheric Modeling
Predictive models for atmospheric interference, propagation conditions, and environmental factors.
Applications
- Path loss prediction
- Interference forecasting
- Optimal routing
Advanced Signal Processing
Real-time signal enhancement and error correction algorithms optimized for high-altitude conditions.
Applications
- Error correction
- Signal enhancement
- Noise reduction
Mesh Networking Protocols
Custom protocols designed for dynamic, high-mobility network environments with frequent topology changes.
Applications
- Self-healing networks
- Load balancing
- Route optimization
Development Timeline
Phase I - Feasibility Study
Milestones
- Atmospheric interference modeling completed
- Initial protocol design validated
- Laboratory testing infrastructure established
Phase II - Prototype Development
Milestones
- First functional mesh network deployed
- Ground-based testing successful
- Initial flight testing at 40,000 feet
Phase III - Advanced Prototyping
Milestones
- Extended altitude testing (60,000+ feet)
- Multi-node network validation
- Performance optimization and reliability testing
Phase IV - Field Validation
Milestones
- Operational environment deployment
- Full-scale network testing
- Documentation and transition preparation
Research Team
Team Lead
Glenn Talbot
Principal Investigator & Team Lead
Cybernetics Research
Cybernetics, Communications Systems, Signal Processing
Email: g.talbot@starkskunkworks.com
Team Members
Antoine Triplett
Senior Research Engineer
Software Defined Radio, Embedded Systems
Lead Engineer - Hardware Development
Jennifer Park
Network Systems Specialist
Mesh Networking, Protocol Development
Lead Developer - Network Protocols
Dr. Ahmed Hassan
Atmospheric Physicist
Atmospheric Modeling, RF Propagation
Environmental Analysis Lead