Orbital computing starts here.
Red Cardinal, our first high-performance data processing unit for space.
Hardware, software, and system integration in one platform. Built for real operational environments.
Red Cardinal combines computing hardware, controlled software, and system-level integration in one cohesive platform designed for real operational environments.
Hardware platform
Red Cardinal is a GPU-based computing platform for in-orbit and edge data processing. Performance, software control, and system integration in one unit, built for autonomous missions. (put the bullet points here too, but open with this line)
- GPU-accelerated processing for AI and data-intensive workloads
- Power and thermal design optimized for embedded operation
- High-speed interfaces for sensors, storage, and communications
Software Stack
A Linux-based software environment built for control, flexibility, and reliable operation across the full system.
- Linux-based system with deep low-level control and customization
- Support for AI, vision, and data-processing frameworks
- Monitoring and fault-management capabilities for reliable operation
System
Designed as part of a complete architecture, Red Cardinal integrates compute, networking, and storage into a unified system.
- Integration with onboard subsystems and payloads through interfaces such as GbE, CAN, I2C, and USB
- Efficient data handling from acquisition to storage and transmission
- Scalable architecture from standalone units to distributed systems
Built on clear principles
How we work matters as much as what we build. These principles shape the way we move from idea to mission-ready systems.
Ambition
We aim high and choose problems worth solving, with the intention to build technology that genuinely moves the field forward.
Robustness
We care about systems that hold up in reality, which means validating deeply, testing thoroughly, and engineering with care.
Velocity
We believe progress comes from moving quickly with focus, learning fast, and improving continuously as the system matures.
Let’s explore how Red Cardinal can fit your mission
From performance and software control to interfaces and integration, we can help you evaluate the platform against your mission needs.
Have questions?
Here are all the answers
What kind of workloads can it handle?
The platform supports AI inference, image and signal processing, and data-intensive applications.
It is optimized for workloads requiring high performance under constrained power and thermal conditions.
How is reliability ensured in constrained environments?
The system is designed with fault management, monitoring, and mitigation strategies (ECSS, ESA Delta/Gamma Class)
It is validated through testing approaches that reflect real operational constraints.
Is it suitable for distributed or multi-node systems?
Yes. The platform is designed to operate both as a standalone unit and as part of a distributed architecture.
It can integrate into larger systems involving multiple compute nodes.
What form factor does the system use?
The platform is designed around a compact, embedded form factor (PC104) suitable for constrained environments.
It can be adapted to standard integration approaches, including CubeSat-class platforms.
What are the power requirements of the system?
Power consumption is configurable depending on mission requirements.
Through software control, the system can operate from sub-5W in low-power modes up to ~40W for high-performance workloads. Idle mode is below 1W.