India already has its first unicorn in the space technology sector. The company Skyroot Aerospace reached a billion-dollar valuation in May 2026, and two months later, its Vikram-1 rocket became the first private Indian rocket to reach orbit. These achievements confirm that India's private space ecosystem has gone far beyond mere aspiration.
A more interesting question is what happens next and whether the next breakthrough should be sought in the right places. India's potential in space is not limited to creating another rocket company; it lies in building an entire space economy. This economy must include infrastructure, components, manufacturing systems, robotics, software, and services that will make space increasingly accessible, industrial, and eventually habitable.
This economy will form in stages. The first stage is cheaper and repeatable access to orbit. Thanks to reusable launch systems and the growing private launch market, space travel can gradually transform from an exceptional event into an economic activity. Once access becomes more reliable, the next stage will be orbital infrastructure, consisting of more advanced stations, platforms, communication networks, and servicing systems.
Infrastructure, in turn, creates conditions for industrial development. Manufacturing and refueling can move into orbit. The vacuum environment and microgravity can enable forms of high-precision manufacturing that are difficult to replicate on Earth, and resources in space can ultimately reduce the need to lift all materials from the surface. Components, fuel, and equipment must pass through a supply chain that extends beyond Earth.
Robots will be the first workforce in this economy. They will build, service, and operate facilities in environments where constant human presence is not yet practical. Over time, closed environments may begin to grow plants and produce food, initially managed largely by autonomous systems. After infrastructure, industry, and life support systems have been demonstrated at increasing levels of complexity, sustainable animal, and then human habitation will become a reality. Thus, the path looks like this: cheap transport, then infrastructure, then industry, and after that robotics and life support systems. It is a long journey on which humanity becomes a truly interplanetary species. Each stage creates a market and technical requirements for the next.
Viewing it this way, the next major Indian space company may not even build a rocket. It might focus on developing propulsion systems, energy systems, sensors, communications, navigation, orbital robotics, satellite servicing, space situational awareness, Earth observation tools, advanced materials, in-space manufacturing, or data processing applications built upon them. Some of these ventures do not even call themselves space companies today.
India's ambitions themselves reflect the scale of this opportunity. The government estimates that the domestic space economy could grow from about $8.4 billion in 2022 to $44 billion by 2033, including $11 billion in exports. A handful of flashy companies cannot achieve this; hundreds of specialized enterprises building different layers of the system will be required.
About 440 space technology startups are registered on the Startup India portal. Separately, Tracxn tracks 285 space technology companies that have raised about $871 million across 241 funding rounds. Only 72 of these companies have received institutional equity financing, and over 60% of the capital was directed to the ten most funded startups. Although these two datasets use different definitions, they point to the same reality: entrepreneurial activity is expanding much faster than institutional capital can keep up.
The government has begun to respond to this gap by creating a much broader capital and infrastructure architecture. The IN-SPACe venture capital fund of 100 billion rupees was launched jointly with SIDBI Venture Capital. IN-SPACe also launched a Technology Incubation Fund worth 50 billion rupees, seeding and pre-incubation programs, common technical facilities, the Satellite Bus as a Service initiative, access to ISRO infrastructure, and technology transfer pathways.
By July 2026, 118 technology transfer agreements covering 83 technologies from ISRO and the Department of Space were signed with Indian industry. Support goes beyond space. A research, development, and innovation program worth 100 billion rupees is designed to provide long-term, low-cost funding for indigenous technologies at Technology Readiness Levels 4 and above. The Startup India Fund of Funds 2.0 adds another 100 billion rupees with separate windows for deep tech funds, micro-venture funds, and technology-oriented manufacturing.
These are important signals that policy actively recognizes that advanced technologies require different timelines, tools, and readiness to support them on a large scale. However, the remaining problem is not whether India is doing enough in absolute terms, but how early the various parts of this architecture connect with the founders and technologies that will give rise to the next layer of the space economy.
A Series A check is important for a company ready to scale. It does not solve the problem faced by a two-person team in a university lab that is still trying to determine if an engine design works outside of simulation. This is a structural problem of deep tech funding. Traditional venture capital operates within a specific fund lifespan and seeks commercial viability in a relatively short period. Deep tech companies often cannot operate on this schedule. They may require years of research, specialized infrastructure, testing, and certification before they can enter a significant commercial market.
Patient capital is sometimes mistakenly taken for undisciplined capital. In fact, it is the opposite: capital that applies the right discipline to the right stage. It is just that the stages are achieved in a different order—first proof of science, prototype, reliability, certification, first customer, and then scaling. The path from technical proof to significant revenue is often measured in years, not months. This makes patient capital not just useful, but necessary. It also means we need to rethink where this journey begins, including the role of universities and campuses in generating science, talent, and early-stage startups that will ultimately underpin advanced industry.
This is where campuses are crucial. The Campus Fund has tracked and invested in student entrepreneurship in India over the past few years, and this shift is hard to ignore. In 2025, over 7,300 startups entered the Campus Fund pipeline, with DeepTech becoming its largest category by almost 17% (compared to 8.4% in 2024), and the profile of founders is changing. The number of founders with a PhD in the pipeline grew from 35 in 2020-21 to 237 in 2024-25, nearly seven times. Startups in Edtech built around coaching and content decreased by 36%, while traditional service startups decreased by 52%. Students are clearly choosing more complex and defensible problems over simpler ones.
This is important because many technologies that will define the next decade are being developed not in corporate strategy rooms, but in university labs by students and researchers who spend years on narrow, inconspicuous tasks. They often have access to professors, laboratories, equipment, and technically skilled peers. What they lack is institutional trust and an early source of venture capital. A student with a working prototype may face difficulties attracting the first check. The same founder several years later, having a company, customers, and external validation, may find it much easier to raise several crores of rupees. The first institutional check must follow technical insight and proof that something is possible.
None of this will work if we pretend that early-stage deep tech is a safe bet, because it is not, and never has been. Some of these propulsion systems will not ignite. Some sensors will work perfectly in a lab but prove impossible to manufacture at cost. Some technologies will only be ready to discover that the market has changed or a competing technology has emerged. Others will simply be displaced by better technologies. Such is the nature of cutting-edge technology. But if capital only flows after product-market fit is established, we risk filtering out precisely those technologies that need time and early support to realize their potential. A small pre-seed check to a student team is not just an investment in a startup. It helps sustain research within the university system and gives founders the opportunity to build a company around work that might otherwise remain in the lab.
The first Indian space unicorn is no longer a prediction. A more complex question is whether we can find the next one before the rest of the world learns its name. It may not be sitting in a boardroom. It may still be in a dorm room, where two founders are arguing at 2 AM about whether the prototype can actually work.
