Adaptive Avionics

Fox2Space On-Board Computers are built from the ground up on open standards as platforms for Adaptive Avionics. These systems are not just fault-tolerant in the traditional sense — they are engineered for survivability under extreme and unpredictable conditions. Designed to empower engineers of all experience levels — even those new to space systems — they make mission-grade fault tolerance accessible and practical. Because our OBCs use current platforms and architectures that most young engineers have already worked with before their first job, onboarding is faster, learning curves are shorter, and productive development begins almost immediately.

Fault Tolerance Made Accessible

Fault tolerance in Fox2Space OBCs is achieved at the system level and fully integrated into the embedded stack. This delivers predictable and quantifiable mission lifetime assurance based on your actual mission profile — not estimates or assumptions. Our adaptive avionics platforms dynamically reconfigure in real time, allowing them to keep operating even when individual components fail. The result is hardware and software that are not only radiation hardened, but hardened to failure — resilient to severe thermal extremes (from cryogenic cold to high-heat environments), sustained vibration and shock loads, and safety-critical demands in air, space, maritime, and terrestrial systems.

Supply Chain Robustness

Our heavily modularized OBC architecture enables customers to freely replace components according to their specific requirements, changing part availability, or evolving project constraints. This flexibility is a key factor in supply chain resilience — allowing us to adapt rapidly to international trade restrictions, tariffs, or shifts in semiconductor availability without redesigning the entire system. Combined with our open-standard approach, this ensures dependable procurement strategies and lower long-term costs without compromising performance or reliability.

Future-Proof Through Technology Scaling

Traditional space-grade fault-tolerant architectures often lag behind commercial semiconductor advancements, especially for components manufactured at fine feature sizes. Fox2Space OBCs turn this challenge into an advantage: our adaptive avionics directly benefit from — and advance with — each new generation of semiconductor manufacturing, processor architecture, and embedded software technology. Innovation in core devices used such as FPGAs allow our OBCs and their reliability scale up as technology progresses, giving missions immediate access to higher performance, better power efficiency, and expanded feature sets without the need for fundamental redesigns or legacy technology retention.

Key Benefits

• Engineer-Friendly Design: Built on familiar, current platforms to reduce onboarding time and increase productivity.
• Predictable Mission Lifetime: Lifetime modeling techniques from astronomy, physics, and mechanical engineering deliver data-backed reliability forecasts.
• Customizable Architecture: Swap modules to match mission requirements and adapt to supply chain realities.
• Survivability in Harsh Environments: Designed for high and low temperature extremes, high-vibration conditions, radiation exposure, and safety-critical systems across multiple domains.
• Future-Proof: Adaptive avionics that evolve with semiconductor and embedded system advancements.

Applications

Fox2Space OBCs are ideal for satellites, spacecraft, UAVs, maritime and submarine platforms, critical infrastructure, and any mission-critical system where reliability, maintainability, and operational flexibility are paramount. Their combination of modular design, adaptive fault tolerance, and technology-forward architecture makes them equally suited to deep-space missions, atmospheric reentry vehicles, autonomous naval systems, and terrestrial safety-critical control systems.

Contact Us

Ready to integrate our adaptive, fault-tolerant, and environment-hardened systems into your mission? Get in touch and explore how Fox2Space OBCs can power your next project — wherever it takes you.