Dr Fazal Ali
Countries that invest in building data centres lower the barriers to developing more of their own AI companies. Conversely, countries that do not invest in hyperscale AI infrastructure will be nowhere in the AI value chain. They will remain tool importers, and their workforce will stagnate as users of AI assemblages and as participants in data-driven innovation in the new Digital Creative Industries.
Land, political stability, relationships with members of the Five Eyes Security Alliance, which participates in joint signals intelligence (SIGINT) collection and sharing, a skilled workforce, and a stable energy grid are critical factors in attracting investment. Screen economies and digital creative industries that innovate with data are now closely linked to investment in AI architectures and Q-commerce.
However, data centres need uninterrupted power at a scale and speed that wind and solar cannot match. This has sparked discussions about orbital compute infrastructure and a coming wave of space-based data centres, moving from concept to early deployment, fuelled by velocity and venture capital. This will require packing lightweight servers into space-qualified modules powered by batteries and solar energy and using high-bandwidth communications back to Earth.
Gemini has already piloted a one-kilowatt (kW) satellite with five embedded GPUs. This early space platform carried data-centre-grade compute into orbit, enabling Gemini to run inference. However, calling it a data centre is misleading. It is an early human instance of putting one of the first satellites that carry data-centre-grade GPUs into space.
Flocks of orbital, space-based AI infrastructure offer several structural advantages. These include unconstrained energy scaling and cost competitiveness relative to terrestrial systems. We must now assess whether space-based compute can deliver predictable performance, repeatable deployment, credible reliability, and competitive economics, even after accounting for launch cadence, replacement rotations, in-space cooling, and data movement costs.
Data centres involving satellites orbiting Earth are therefore not a fanciful idea. We are already in that future. The next generation of data centres will carry a ten-kW rack-scale system into space, with multiple advanced AI chips and more robust cooling infrastructure.
That star-date is the point from which AI behemoths will be able to have part of their terrestrial infrastructure orbiting the planet in a flock. The real step-change, however, is planned for 2028, when a three-ton, 200kW system designed to fit into Starship’s deployment launch format is deployed.
After that, regardless of any failures or delays that may push the launch date to 2030, we will have effectively succeeded in deploying a space-based data centre capable of handling large-scale inference workloads.
A flock of 88,000 satellites orbiting the Earth with these GPUs will deliver about 20 gigawatts of compute capacity, dedicated to inference workflows. At the heart of this human ambition is the notion of “intelligent failure.”
Elon Musk has redefined “failure” before our very eyes. Failure begins with designing smart pilots that keep failures slight. It is a culture alien to West Indian civilisation. We must learn to fail small and recover fast.
We must not run from the endless opportunities that fall at our feet; instead, we must fail small, adapt, iterate, and recover with speed. There is no Big Bang! Only the next rehearsal. Intelligent failure turns on limitless naivete and an absence of artificiality.
Such failure is always intelligent because there is no formula to precisely map the terrain in advance. Failure is better than never trying. To do nothing is to never fail. Never failing is doing nothing. This is an unknown cultural oasis for former plantation societies that continue to lean on the pillars of Ward Schools that created no space for failure.
Data centre construction on Earth faces one principal constraint. Energy! We are unable to build the required energy infrastructure fast enough. In space, the constraints and bottlenecks around allow the quick buildout of large-scale solar installations disappear.
While data centres that run on solar power need battery storage or other backup power for nighttime use, solar generation can be near continuous in the right orbit. Orbital data centres will use a dawn-dusk sun-synchronous orbit that follows the Earth’s terminator line and will remain in continuous sunlight.
This future is being designed on the possibility that launch costs will decline materially to about US$500 per kilogram. At that turning point, orbital compute will be economically competitive with terrestrial alternatives. Bringing infrastructure costs in space down to about US$5M per megawatt, compared with US$12M to US$15M for terrestrial systems, is another target.
Orbital AI-Assemblages will be a fertile field for hyperscalers and emerging AI-focused neocloud providers. Demand for orbital compute is also being driven by the increased difficulty of finding new energy sources for data centres. Terrestrial data centres near conflict zones are vulnerable to persistent drone attacks on hyperscale AI campuses and energy infrastructure.
Dr Fazal Ali completed his Master's in Philosophy at the University of the West Indies. He was a Commonwealth Scholar who attended the University of Cambridge, Hughes Hall; the Provost of the University of Trinidad and Tobago; the acting President of UTT; and the Chairman of the Teaching Service Commission. He is the President of NIHERST and an external services consultant with the IDB.
