Satellite connectivity and AI: AMD collaborates with NEC and NASA on new technologies

AMD provides key computing technology that enables NASA and private companies to transition to a sustained presence on the Moon. Thanks to advanced integrated circuits, spacecraft can now analyze data in real time on their own, without having to wait for instructions from Earth.

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As NASA shifts its focus from short exploration missions to a sustained presence on the moon, the frontline of the battle for technological supremacy shifts to where data latency becomes a critical bottleneck. In the new reality, where distance from Earth’s server rooms makes ongoing data analysis impossible, the key to success is becoming ‘intelligent edge’ (edge computing) – and it is here that AMD sees its chance to define the standards of the new space age.

The Santa Clara giant’s strategy is based on a simple premise: in order for America to lead in space, it must have an edge in the production of advanced chips capable of operating in extreme conditions. The traditional approach of sending raw data back to Earth is no longer efficient for projects such as the NISAR mission or the Artemis programme. The solution is the Versal series of adaptive SoCs, which combine programmable logic with AI engines, allowing information to be processed directly on board the spacecraft.

For commercial partners such as Blue Origin, the choice of AMD technology is not only a question of performance, but above all flexibility. The flight computers powering the Mark 2 lander test vehicle need to be ready to update AI algorithms after launch, something that was previously impossible with rigid hardware architectures. The ability to reconfigure systems on orbit allows the mission to be optimised in response to unforeseen challenges, dramatically increasing the return on investment for multi-year space programmes.

The application of these technologies goes beyond NASA’s ambitions. Japan’s NEC is using adaptive AMD chips to build a constellation of optical communications satellites, which is set to revolutionise data routing in extraterrestrial space. This shows that the competition for silicon in space is not just a matter of national prestige, but a real market for infrastructure services.

AMD’s success on Mars, where FPGAs supported the Perseverance rover’s navigation, provides a solid foundation of confidence. However, the real test for the company will be the coming decade, where autonomous systems will have to cope with radiation and extreme temperatures without support from the base. In this high-margin sector, where reliability is more valuable than raw computing power, AMD is positioning itself as an essential architect of the new orbital data economy.

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