As the earth strains under the weight of its own digital appetite, a Chennai-based company is looking upward for relief. Agnikul Cosmos, in partnership with NeevCloud, plans to place an artificial intelligence data centre prototype into low Earth orbit before the close of 2026 — a venture born not from ambition alone, but from the arithmetic of a world whose demand for computing power is outpacing its capacity to house it. If the demonstration holds, it may mark the moment humanity began offloading its thinking not just to the cloud, but to the cosmos itself.
Agnikul to launch orbital AI data centre prototype by year-end, targeting 2027 commercialisation
In space, there is unlimited solar energy and cooling is much more efficient
Why focus on inference rather than training? That seems like starting with the easier problem.
Exactly. Training is where you build the model from scratch—it's computationally brutal and requires sustained, massive power. Inference is where you take that finished model and run it on new data. It's less demanding, which means it's actually feasible to do in space right now. You learn to walk before you run.
But if the real money is in training, doesn't that limit the market?
Not really. Inference is where the models actually earn their keep. Every time a company wants to use an AI model to make a prediction or analyze something, that's inference. The volume is enormous. And doing it in space solves a real constraint—you don't need to build another massive terrestrial data centre.
The eclipse problem seems like it could be a deal-breaker. Half the time you're in darkness.
It would be, except they've already solved it. Imaging satellites have been managing this for years. You just shift to low-power tasks during eclipse and ramp up when you're in sunlight. It's not elegant, but it works.
What happens if a satellite fails? You lose part of your constellation.
That's why it's a constellation, not a single facility. You have redundancy built in. One module goes down, the others keep running. It's more resilient than a terrestrial data centre in that sense.
And the security angle—how real is that?
It's real. You can't physically break into an orbital data centre. No one can walk in with a hard drive. That matters for sensitive work, for confidential data. It's a genuine advantage.
Le Pouls
- Global data centre demand is racing toward a ceiling — projected to consume up to 219 gigawatts annually by 2030 — and the ground is simply running out of space, water, and power to keep pace.
- Agnikul's answer is radical: repurpose rocket upper stages as orbital computing nodes, drawing on limitless solar energy and the near-absolute-zero cold of space to do what terrestrial infrastructure increasingly cannot.
- The company is deliberately targeting AI inference rather than training, a strategic narrowing that makes the energy demands manageable and the orbital concept viable as a first step.
- A carefully engineered eclipse protocol — shifting between high-power computation in sunlight and low-power transmission in shadow — borrows from imaging satellite playbooks to keep the system functional around the clock.
- The prototype launching by year-end is a proof of concept, not a product; the real test is whether 2027 brings paying customers and the birth of an entirely new category of critical infrastructure.
As the earth strains under the weight of its own digital appetite, a Chennai-based company is looking upward for relief. Agnikul Cosmos, in partnership with NeevCloud, plans to place an artificial intelligence data centre prototype into low Earth orbit before the close of 2026 — a venture born not from ambition alone, but from the arithmetic of a world whose demand for computing power is outpacing its capacity to house it. If the demonstration holds, it may mark the moment humanity began offloading its thinking not just to the cloud, but to the cosmos itself.
Agnikul Cosmos, headquartered in Chennai, is confronting one of the quieter crises of the digital age: the world is building more artificial intelligence than it has room to run. In partnership with Bengaluru's NeevCloud, the company plans to launch a prototype AI data centre into orbit by the end of 2026, with commercial operations targeted for 2027. The ambition is grounded in hard numbers — McKinsey projects global data centre power demand will grow 19 to 22 percent annually through 2030, reaching as much as 219 gigawatts per year.
Space, Agnikul's co-founder Srinath Ravichandran argues, offers what Earth increasingly cannot: unlimited solar energy, passive cooling near absolute zero, and physical inaccessibility that doubles as a security feature. The system will not be a single satellite but a constellation of rocket upper stages, each hosting computing modules that communicate with one another and with ground stations below. Crucially, the focus is on AI inference — using already-trained models to analyze data and generate predictions — rather than the far more energy-intensive work of training those models in the first place.
The engineering is demanding but not unprecedented. Satellites already manage the rhythm of sunlight and shadow; Agnikul will simply apply that logic to computation, running heavy processing when facing the sun and shifting to data transmission during eclipse phases. Radiative cooling — shedding heat directly into the thermal sink of space — replaces the water-intensive cooling systems that make terrestrial data centres so resource-hungry.
Ravichandran is measured about what the prototype represents: not a business, but a demonstration. The question it must answer is whether a repurposed rocket stage, outfitted with computing hardware and cooling systems, can reliably perform AI inference in orbit. If it can, Agnikul will not just have a product — it will have opened a new frontier in the geography of human computation.
Agnikul Cosmos, a Chennai-based space company, is building something that sounds like science fiction but is grounded in a very real problem: the world is running out of room for data centres. By the end of this year, the company plans to launch a prototype of an artificial intelligence data centre into orbit, with the goal of running it commercially by 2027. The venture is a collaboration with NeevCloud, a Bengaluru-based AI platform, and it represents a fundamentally different approach to where and how we process information at scale.
The scale of the challenge is staggering. Global demand for data centre capacity is expected to grow between 19 and 22 percent annually through 2030, reaching somewhere between 171 and 219 gigawatts of power consumption per year, according to McKinsey. Traditional data centres are massive, power-hungry installations that require enormous amounts of water for cooling and vast tracts of land. Companies like SpaceX, Google, and Axiom have all begun exploring whether space might be the answer. Agnikul's co-founder Srinath Ravichandran sees it as inevitable. "In space, there is an availability of unlimited solar energy, and cooling is much more efficient because you are exposed to temperatures close to absolute zero," he said in an interview. Beyond the physics, there is also a security argument: a data centre in orbit is simply harder to access, which means the data stored there is harder to compromise.
The system Agnikul is building will not be a single satellite. Instead, it will be a constellation of upper stages from rockets, each one hosting different modules of the data centre, all orbiting in low Earth orbit and communicating with each other and with ground stations. The company is not attempting to build a facility for training AI models, which would require enormous computational resources. Instead, it is focusing on inference—the process of taking a model that has already been trained and using it to analyze new data and make predictions. This is less energy-intensive than training, which makes it a more realistic first step for an orbital system.
The engineering challenges are significant but not unsolved. The constellation will need to manage power carefully, since satellites pass through Earth's shadow roughly half the time. During these eclipse phases, when sunlight is blocked, the system will shift into low-power mode, handling tasks like data transmission. When the satellites face the sun again, they will switch to high-power mode for the heavy computational work. This switching framework already exists in imaging satellites, so Agnikul is not inventing the concept from scratch. The company has also invested heavily in radiative cooling—a process by which heat is shed directly into space through thermal radiation—which is how the system will maintain safe operating temperatures without the water cooling that terrestrial data centres depend on.
Ravichandran is clear that the prototype launching at year's end is not the beginning of commercial service. It is a proof of concept, a demonstration that Agnikul can actually build and operate an AI data centre in space. The real business begins in 2027, when the company moves into what Ravichandran calls "commercialisation mode." That is when the system will open up to paying customers and when Agnikul's addressable market will expand significantly. For now, the company is focused on showing that the idea works—that you can take the upper stage of a rocket, outfit it with computing hardware and cooling systems, put it in orbit, and have it reliably process AI inference tasks while drawing power from the sun. If that demonstration succeeds, it will establish a new category of infrastructure and prove that some of the world's most demanding computational work does not have to happen on Earth.
Citations marquantes
The data centre will be used for AI inference, which does not require as much energy and infrastructure as is needed for training a model.— Srinath Ravichandran, co-founder of Agnikul Cosmos
From 2027, we will be in commercialisation mode, which will open up a new class of customers and significantly increase our market.— Srinath Ravichandran