Aitech Unveils Rugged SBC for Advanced Space Computing

Aitech introduces SP1, a space-rated 3U OpenVPX Single Board Computer (SBC) engineered for high-performance computing, enabling advanced autonomy, debris avoidance, and flexible payload integration in next-gen space missions By Joseph Macey / 20 Mar 2025

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Aitech Unveils Rugged SBC for Advanced Space Computing
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Aitech, a leader in rugged embedded systems for military, aerospace, and space applications, has introduced the 3U OpenVPX SP1—a space-rated single-board computer (SBC) designed to support the next generation of space exploration and satellite operations.

Engineered for high-performance missions across low Earth orbit (LEO), geostationary orbit (GEO), lunar, and deep space environments, the SP1 enhances computational capabilities for spacecraft and payload systems, delivering advanced edge processing and onboard analysis.

John White, Space Solutions Director at Aitech, said, “The space market is rapidly evolving, and next generation, more powerful SBCs are essential in enabling multi-core high performance supporting increasingly complex missions. Aitech’s SP1 is indispensable in the space market by providing efficient and reliable computing solutions for Earth observation, communications, Command and Data Handling (C&DH), robotic applications with vision processing, power distribution and management, and signal processing and analysis, from LEO to lunar and deep space missions.”

The SP1 is built to meet the increasing demands of modern space missions, offering a powerful onboard processor, extensive I/O options, and a high-performance configurable FPGA. These features enable mission-critical reliability, adaptability, and scalability, making the SP1 an ideal solution for spacecraft requiring high-bandwidth data processing and real-time decision-making.

Key Applications of the 3U OpenVPX SP1

Autonomous Space Maintenance and Operations

As a digital backbone for spacecraft, the SP1 supports autonomous decision-making and maneuvering by integrating AI/ML algorithms. This reduces reliance on ground-based commands, enabling real-time adaptability and enhancing mission efficiency for both crewed and uncrewed operations.

Debris Avoidance and Situational Awareness

With an increasing amount of space debris posing a risk to satellites and spacecraft, the SP1’s high-speed processing capabilities play a critical role in detecting and mitigating collision threats. It enables enhanced situational awareness, dynamic trajectory adjustments, and autonomous collision avoidance to ensure mission longevity and safety across all orbital levels.

Multiple Payload Hosting and Control

Leveraging OpenVPX architecture and high-bandwidth I/O capabilities, the SP1 offers seamless integration with diverse sensors and payloads. It supports a wide range of digital backbone architectures, including Gigabit Ethernet, GPIO, UART Serial, USB 2.0, SpaceWire, SpaceFibre, CANbus, and SPI. Additionally, its onboard FPGA and PMC connector allow for supplementary I/O expansion, facilitating stepper motor control, high-speed camera interfaces, power management, and digital/analog input-output.

Mission-Critical Reliability

Designed for long-duration space missions, the SP1 is built to withstand extreme radiation environments. It incorporates electronic reliability features tailored for different mission profiles, from LEO to deep space, ensuring operational integrity in both unmanned and human-critical applications. Equipped with four 1.8 GHz 64-bit ARM Cortex-A72 cores delivering 44,000 CoreMarks of performance, the SP1 utilizes ECC-equipped DDR4 memory to optimize data processing efficiency. This local processing capability reduces bandwidth demands by transmitting only essential information.

To further enhance durability, the SP1 undergoes rigorous radiation testing, achieving characterization to 100 krad (Si) and providing latch-up immunity to 67 MeV-cm²/mg in an ISS orbit. These specifications ensure resilience against space radiation, making the SP1 a robust computing solution for advanced space missions.

With its combination of processing power, adaptability, and mission-critical resilience, the Aitech SP1 stands as a pivotal advancement in space-rated computing, ready to support the future of space exploration and satellite operations.

Posted by Joseph Macey Joseph Macey is a Content Specialist at Defense Advancement, where he has focused on emerging defense technologies since joining in 2022. His expertise spans tactical UAS, rugged computing, and Satellite Communication Systems. After graduating in Journalism from Falmouth University, Joseph began his career in 2019 as a local reporter. His journalism background enhances both his reporting and interview skills, enabling him to provide insightful, authoritative analysis of the latest trends shaping the defense industry. Connect
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