MISSION-CRITICAL WIRELESS
Wi-Fi connectivity for drones, aviation and autonomous systems
Autonomous and airborne platforms need more than high throughput. Link behavior, latency, interference, weight, power, thermal limits, and fail-safe operation must be engineered as one system.
Where the solution fits
A radio that works on a bench can behave differently near motors, composite structures, moving antennas, or competing links. Mission-critical traffic, payload data, telemetry, and maintenance access also need clear separation and priorities.
We help define link budgets, architecture, frequency and antenna options, onboard interfaces, traffic priorities and validation scenarios. Testing can cover range, mobility, interference, temperature and recovery from degraded links.
Predictable link behavior
Architecture based on range, mobility, and latency requirements.
Traffic separation
Priorities for control, telemetry, payload, and maintenance data.
Platform integration
Attention to weight, power, mechanical design, thermal constraints, and interfaces.
Evidence-based validation
Measurements and test scenarios tied to operational use.
Engineering scope
Typical delivery components
- link budget and architecture
- antenna and frequency concept
- onboard integration review
- latency and throughput tests
- range and interference validation
A controlled path from requirement to deployment
We start with the real operating environment, choose a supportable architecture and validate it before rollout.
01 / Assess
Requirements, radio environment, interfaces and risks.
02 / Design
Architecture, components, integration and test plan.
03 / Validate
Prototype, measurements, documentation and rollout support.
Developing a drone, airborne platform or autonomous machine?
Describe the mission profile, range, payload data, interfaces, and environment. We will propose an appropriate architecture and validation plan.