TakeMe2Space has 17 employees and a cubesat still bolted to its launch vehicle, according to the New Indian Express. To build the 50-kilowatt orbital data center it is pitching, the company needs launch costs to drop 94% — from roughly $3,600 per kilogram today to around $200 per kilogram. That gap is not a line item on a budget. It is the distance between a demonstration and a product.
The Hyderabad, India startup raised a $5 million seed round in early 2026, according to Inc42, and is targeting a 50-kilowatt system — enough to run a small AI inference workload — by 2027. It booked early customers at $2 per minute for compute on its existing orbital platform, which it calls OrbitLab, Inc42 reported. The pitch is resilience: orbital infrastructure survives strikes that take out terrestrial data centers. Two AWS facilities in the UAE were hit by drones in April, and a third in Bahrain took nearby damage, according to Axios.
The physics is real. The market timing may be real. The economics are not there yet.
TakeMe2Space's approach is to use standard Nvidia GPU modules — the same chips running data centers on Earth — coated in a proprietary radiation-shielding layer to extend operational life in orbit, according to Inc42. This avoids radiation-hardened silicon, which costs 10 to 100 times more and performs worse. The company launched its first satellite on India's Polar Satellite Launch Vehicle (PSLV) in December 2024, according to SpaceNews. That satellite is still attached to the PSLV upper stage — it has not yet operated independently in orbit. A six-unit cubesat with an Nvidia Jetson module is booked on a SpaceX Falcon 9 rideshare for October 2025, which will be the first free-flying TakeMe2Space spacecraft running commercial silicon in orbit. A four-satellite constellation with optical inter-satellite links — passing data between satellites using focused light beams rather than radio — is targeted for 2027, SpaceNews reported.
The cost model that confronts that roadmap comes from Andrew McCalip at Payload Aerospace, whose February 2026 analysis found that a one-gigawatt orbital data center — the scale that would actually compete with terrestrial facilities — would cost roughly $42.4 billion, nearly three times its ground-based equivalent, according to TechCrunch's review of McCalip's work. At the component level, orbital compute runs about $31.20 per watt versus $14.80 per watt for terrestrial systems, McCalip's model shows. Levelized cost of energy in orbit comes to $891 per megawatt-hour; comparable terrestrial solar sits at $398, according to his data.
Launch is where the gap becomes a chasm. Falcon 9 delivers payload to orbit at roughly $3,600 per kilogram today, TechCrunch reported. TakeMe2Space's 50-kilowatt target requires launch costs closer to $200 per kilogram to be economically competitive — a 17-fold reduction from current pricing. The only vehicle in current development with a plausible path to that price point is SpaceX's Starship, which has not yet reached operational status, has not published pricing below current Falcon 9 levels, and has had a documented history of rapid iteration rather than reliability.
CEO Ronak Kumar Samantray previously founded NowFloats Technologies, a software-as-a-service startup acquired by Reliance Industries in 2019, according to SpaceNews. The company is targeting $15 million in annual revenue by 2027 — a figure that assumes a constellation exists to generate that compute, which it does not yet.
The honest version of TakeMe2Space's pitch is: we are selling inference services today and betting that Starship works, launch costs drop by 94%, and geopolitical risk keeps demand elevated long enough to bridge the gap to a full orbital data center. That is a coherent strategy. It is also a bet that depends on a vehicle that does not yet fly reliably, a cost curve that has not yet bent, and a market window that has not yet closed.
The satellites are not in orbit yet. The rocket is not operational yet. The math is not there yet.
Whether any of that changes by 2027 is the only question that matters for TakeMe2Space's 50-kilowatt ambition. The company is building the right things in the right order — prove the radiation coating works, demonstrate commercial silicon survives in orbit, demonstrate inter-satellite optical links at scale. Every step is load-bearing for the next one. If Starship reaches operational status and publishes pricing below $200 per kilogram, the economic barrier dissolves and TakeMe2Space's road map gets significantly easier to defend. Until then, the gap between a working cubesat bolted to a rocket stage and a 50-kilowatt orbital data center is measured less in watts than in the distance between a demonstration and a product.