Elon Musk Made Space Cheap. Two Indian Scientists Found What SpaceX Still Gets Wrong

On July 18, 2026, a seven-storey rocket lifted off from the Satish Dhawan Space Centre in Sriharikota. Seventeen minutes later, India had crossed a line it had never crossed before.

The rocket was not built by ISRO. It was built by a Hyderabad startup.

Skyroot Aerospace’s Vikram-1 successfully reached low-Earth orbit on its maiden attempt, deploying customer payloads and becoming the first orbital-class rocket developed by an Indian private company to complete a successful orbital mission. Skyroot had already made history four years earlier when Vikram-S became India’s first privately developed rocket to reach space, but Vikram-1 was different. This time, the company had demonstrated an end-to-end capability that until very recently existed almost entirely inside government institutions.

The achievement looks even more remarkable when you consider where Skyroot started. In 2018, when former ISRO scientists Pawan Kumar Chandana and Naga Bharath Daka founded the company, India did not yet have the regulatory architecture that now supports private orbital launch companies. There was no IN-SPACe acting as the single-window authorisation body, no Indian Space Policy 2023 defining the roles of private players, and far less clarity about how a startup could build a rocket, test it using national infrastructure and eventually launch it from Indian soil.

Eight years later, Skyroot is valued at more than a billion dollars.

But the most interesting part of this story is not that two former ISRO scientists built a rocket company. It is why there was room for that company to exist in the first place.

Because Skyroot did not discover a way to beat SpaceX at SpaceX’s own game. It found a part of the market where being smaller could actually become an advantage.

India had rockets. What it did not have was a private launch industry

India’s history in space has always been slightly unusual. ISRO became internationally respected not by spending more than everybody else, but by learning to do extraordinary things within tight budgets. India reached Mars orbit on its first attempt, built increasingly capable launch vehicles and developed one of the world’s most credible government space programmes.

Yet a successful national space programme is not the same thing as a successful commercial space economy.

For most of the modern space age, ISRO sat at the centre of India’s ecosystem. Private companies could manufacture components and participate as suppliers, but the country lacked a clear framework for non-government entities to independently carry out many end-to-end space activities. When Skyroot was founded in 2018, its founders therefore faced not only the ordinary technological risk of building a rocket from scratch, but also a serious regulatory question: if the rocket eventually worked, what exactly would the process of launching it commercially look like?

That began changing dramatically in 2020, when the Indian government announced reforms designed to open the space sector to private participation. IN-SPACe was subsequently created to promote, regulate and authorise non-government space activity, while the Indian Space Policy 2023 formally established a framework under which private entities could build and operate launch vehicles, satellites, launch infrastructure and other space systems.

This distinction matters because saying that private rockets were simply “illegal” before 2020 is too simplistic. The deeper problem was the absence of regulatory certainty and a practical route for a startup to conduct independent launches using an ecosystem that had historically been built around ISRO.

For investors, uncertainty can be almost as damaging as prohibition. Building a consumer app is risky enough when you do not know whether customers will use it. Building a rocket company becomes far harder when the regulatory system that will eventually allow you to operate it has not fully taken shape.

That was the environment Pawan Chandana and Bharath Daka walked into.

A cold LinkedIn message and a ₹10 crore bet

Both founders had worked inside ISRO before leaving to build Skyroot. They understood propulsion, launch vehicles and the extraordinary complexity of getting hardware into space. What they did not have was the large pool of private capital normally associated with American space startups.

Their first breakthrough reportedly came from something far less sophisticated than rocket science: a cold message on LinkedIn.

Pawan Chandana later recalled reaching out to entrepreneur Mukesh Bansal, the founder associated with Myntra and CureFit. Bansal eventually became Skyroot’s first investor, backing the company with approximately ₹10 crore at a time when India’s private launch industry barely existed.

That initial investment was important not merely because Skyroot needed cash. Deep-tech startups often face a credibility problem before they face a technology problem. An investor writing the first meaningful cheque can make the second investor more comfortable, which makes the third more comfortable, until an idea that previously looked impossible slowly starts looking fundable.

Skyroot subsequently raised increasingly larger rounds of capital. By May 2026, it had raised another $60 million in a round involving investors including Sherpalo Ventures and GIC, taking its reported pre-money valuation to around $1.1 billion and total funding raised to roughly $160 million. Skyroot had officially entered the unicorn club before Vikram-1 had even completed its first orbital flight.

The obvious question is why investors were willing to place that kind of bet on a company entering a market already dominated by one of the most formidable technology companies on Earth.

The answer lies in understanding what SpaceX optimized for, and what it did not.

SpaceX is incredibly cheap. That does not mean it is perfect for every satellite

SpaceX completely transformed the economics of getting payloads into orbit.

Its Falcon 9 is reusable, launches frequently and benefits from an enormous scale advantage created partly by SpaceX’s own Starlink constellation. For small satellite operators, the company’s rideshare programme has made access to orbit dramatically cheaper. SpaceX currently advertises dedicated rideshare slots starting at around $350,000 for up to 50 kilograms to a sun-synchronous orbit, with additional payload mass priced at roughly $7,000 per kilogram. Its sun-synchronous rideshare missions operate approximately every four months, alongside frequent launches to mid-inclination low-Earth orbits.

Trying to defeat SpaceX purely on cost per kilogram would therefore be an extremely difficult business strategy for a young Indian startup.

But cost per kilogram is only one variable in a satellite launch.

Imagine you want to travel from Delhi to Mumbai. A train may be far cheaper per passenger than hiring a car. It can carry hundreds of people simultaneously and run at enormous scale. But the train runs according to its route and timetable. It does not pick you up outside your house and drop you exactly where you want to go.

SpaceX rideshare works on a somewhat similar principle.

Multiple satellites share a Falcon 9 launch, allowing the fixed cost of the rocket to be distributed across many customers. This creates excellent economics, but customers generally choose from available missions and orbital profiles. SpaceX does accommodate several kinds of orbits and can discuss specialised missions, so the idea that it simply drops every satellite at one fixed altitude or inclination is incorrect. Nevertheless, rideshare inevitably involves compromises around schedule, deployment conditions and orbital destination.

For many customers, those compromises are perfectly acceptable.

For some, they are not.

That is the market Skyroot wants.

Why the exact orbit matters

Orbit is not simply another word for “space.”

A satellite travelling 450 kilometres above Earth behaves differently from one travelling at 800 kilometres. Inclination, the angle between the satellite’s orbit and Earth’s equator, determines which parts of the planet it can observe. Altitude affects orbital period, atmospheric drag, coverage and lifetime.

Changing these parameters after launch can consume valuable propellant.

This becomes particularly important for Earth-observation satellites. Many imaging satellites operate in sun-synchronous orbits, designed so that they pass over a particular region at approximately the same local solar time. Doing this allows photographs taken on different days to have more consistent lighting conditions, making it easier to identify genuine changes on the ground rather than differences caused simply by shadows or the position of the Sun.

A satellite monitoring crops, glaciers, forests, coastlines or military infrastructure may therefore care deeply about precisely where it is deployed.

And every kilogram of propellant used correcting the orbit after launch is a kilogram that cannot be used for something else.

This is where a dedicated small launcher can offer something a giant rideshare rocket cannot always optimise for: control.

Skyroot describes its Vikram series as a “cab service to space.” Vikram-1 is designed specifically for small satellites and can support both shared and dedicated missions. Its maximum advertised payload capacity is around 350 kilograms to low-Earth orbit, while the entire rocket can be dedicated to a customer who requires greater control over orbital parameters and launch timing. The vehicle also uses a restartable liquid upper stage, allowing it to perform additional manoeuvres after the lower stages have finished their work.

That does not mean Vikram-1 can launch every spacecraft into every imaginable orbit, and Skyroot itself currently advertises low-to-mid inclination access from India. What it means is that Skyroot can sell something other than the cheapest possible ride.

It can sell flexibility.

And in aerospace, flexibility can be valuable enough for a customer to pay more per kilogram.

Skyroot does not need to beat SpaceX

This is perhaps the most important point in the entire business case.

Skyroot does not need Falcon 9 to become obsolete.

It does not even need Vikram-1 to become cheaper than Falcon 9 on a pure per-kilogram basis.

A small launch company can survive by serving missions where a customer values a dedicated launch, schedule control, specialised integration or a more precise orbital requirement enough to pay a premium.

Airlines and private jets coexist for the same reason. Nobody would argue that a Gulfstream is cheaper per passenger than an Airbus A380. That is not the product being sold.

The product is control.

Rocket Lab has spent years proving that there is a commercial market for smaller launch vehicles despite SpaceX’s existence. Skyroot is pursuing a similar logic from India: build a launch system around smaller payloads, flexible deployment and a cost structure that takes advantage of the Indian aerospace ecosystem.

The economic gap is therefore not “SpaceX is too expensive.”

It is that SpaceX is optimized for scale, while some customers are willing to pay for precision and independence.

That is a much more defensible market.

The hidden advantage Skyroot inherited from ISRO

Building a rocket company is expensive for reasons that extend far beyond the rocket itself.

You need propulsion test infrastructure, large manufacturing equipment, safety systems, launch facilities, tracking systems, highly specialised engineering teams and enormous areas where explosive hardware can be tested without killing anyone.

An American launch startup may have to build or commercially acquire access to much of that ecosystem.

Skyroot has another option.

India’s post-2020 space reforms allow private companies to access ISRO infrastructure through IN-SPACe under defined procedures. Government policy now specifically includes facilitation and concessional access to national facilities as part of its strategy for building the private space economy.

Vikram-1 provides a perfect example of how this works.

ISRO says its facilities were used to support solid-motor casting and static testing. The Raman-I liquid engine was tested at the Liquid Propulsion Systems Centre. ISRO also supported stage preparation, transportation, vehicle integration, trajectory analysis and launch operations at Sriharikota, while IN-SPACe helped coordinate authorisations, reviews and access.

This is not the government simply gifting hundreds of millions of dollars of infrastructure to Skyroot for free. Access is governed through policy and institutional arrangements, including discounted and concessional mechanisms.

But economically, the advantage is still significant.

India has already spent decades building national space infrastructure. A startup does not necessarily need to recreate every test stand and launch facility from zero before it can begin proving its technology.

That reduces duplication and allows private capital to concentrate more heavily on the rocket itself.

Engineering the rocket around cost

Skyroot has also designed Vikram-1 with manufacturing simplicity in mind.

The vehicle uses three solid-propellant stages followed by a liquid upper stage. Carbon-composite structures reduce weight, while additive manufacturing is used in components such as liquid rocket engines. Skyroot markets 3D-printed propulsion as one of the technologies helping it simplify production and reduce the number of individual parts required in complex engine systems.

3D printing does not magically make rockets cheap. Aerospace components still require expensive materials, testing, inspection and qualification.

What additive manufacturing can do is consolidate parts that would traditionally require separate machining, welding and assembly. Fewer individual parts can mean fewer interfaces, fewer potential failure points and shorter manufacturing cycles.

For a company trying to launch frequently, manufacturing time can become almost as important as material cost.

Skyroot’s long-term challenge will therefore not simply be proving that Vikram-1 can reach orbit. It has already done that once.

The harder challenge is proving that it can do it repeatedly.

July 18 changed the company

Vikram-1 lifted off at 12:05 p.m. IST on July 18 during a mission named Aagaman. The four-stage vehicle followed its planned trajectory and successfully placed payloads into low-Earth orbit. These included satellites and experimental payloads from Indian and international customers. ISRO described the mission as the first successful orbital launch from Indian soil carried out by a private Indian company, and Skyroot achieved it on its first orbital attempt.

That distinction matters enormously to investors and customers.

Before the flight, Skyroot had models, simulations, test data and suborbital experience.

After the flight, it had orbital flight heritage.

Space companies live and die on reliability. Nobody putting a satellite worth millions of dollars on top of a rocket wants to hear that the design looks excellent in PowerPoint.

They want evidence that it works.

Skyroot now has that first piece of evidence.

But a single successful mission is not enough to make the company India’s SpaceX. SpaceX earned its position by flying Falcon 9 hundreds of times, driving up launch cadence, proving reusability and operating at a scale almost no competitor can currently match.

Skyroot is at the beginning of that curve, not the end.

The significance of Vikram-1 is therefore not that India suddenly has a company equal to SpaceX.

It is that India has demonstrated that a private startup can now complete the entire journey from drawing board to orbit.

That changes what founders, investors and customers believe is possible.

The larger Indian space boom is already visible

Skyroot is not an isolated story anymore.

As of August 13, 2026, the Indian government said approximately 440 space-technology startups were registered on the Startup India platform. Private investment in the sector had crossed $618.5 million by March 31, 2026, with another $187 million reported during 2026 alone by July.

That is an extraordinary shift from only a few years ago.

Companies such as Agnikul are developing launch vehicles. Pixxel is building Earth-observation satellites. Digantara is working on space-domain awareness. Bellatrix is developing propulsion technology. Dhruva Space is building satellite platforms and infrastructure.

This matters because a space economy is much larger than rockets.

Rockets are the transportation layer.

Once access to orbit becomes cheaper and more frequent, businesses can emerge above that layer. Satellites can monitor crop health, identify methane leaks, detect illegal mining, measure deforestation, map disasters, provide communications, track maritime traffic and generate datasets that eventually become software products here on Earth.

The downstream applications may ultimately create far more economic value than the launch itself.

India’s official ambition reflects that opportunity. The government estimated the Indian space economy at around $8.4 billion in 2023, approximately 2% of the global market at the time. Its current strategy targets roughly $44 billion by 2033 and potentially $100 billion by 2040.

Those targets are ambitious.

But government policy is clearly attempting to push capital toward them.

Policy may be India's biggest space technology

The most fascinating part of the Skyroot story may ultimately have less to do with propulsion than with policy.

For decades, India proved that it possessed the scientific ability to build rockets and spacecraft. The bottleneck was turning that national capability into an entrepreneurial ecosystem in which hundreds of companies could experiment around it.

The reforms since 2020 have attacked that bottleneck from several directions.

India has created the ₹1,000 crore space-sector venture capital fund, selected SIDBI Venture Capital as its fund manager, established a ₹500 crore Technology Adoption Fund and introduced seed-funding and incubation programmes through IN-SPACe.

Foreign investment rules have also been liberalised, although they are more nuanced than simply saying India allows 50–100% FDI across the entire space sector. Under the revised framework, satellite manufacturing, operation and certain ground or data businesses allow up to 74% FDI through the automatic route, while launch vehicles and spaceports allow up to 49% automatically, with investment above those thresholds requiring government approval. Manufacturing certain components and subsystems can receive up to 100% FDI automatically.

These rules matter because deep-tech companies consume enormous capital long before revenue arrives.

A rocket startup may spend years testing propulsion systems before it sells a single commercial launch.

Without patient capital, most of these companies die before their technology has a chance to work.

Policy therefore does not merely regulate the space industry.

In a young market, policy can determine whether the industry exists at all.

There is still a long road between one launch and a global launch company

The temptation after a milestone like Vikram-1 is to immediately declare victory.

That would be premature.

SpaceX remains extraordinarily difficult to compete with. Its rideshare programme offers extremely low pricing and frequent missions, while Falcon 9’s massive flight history gives satellite operators confidence that a new launch company cannot reproduce overnight.

Skyroot must now turn a technically successful launch into a repeatable commercial operation.

It needs customers.

It needs launch cadence.

It needs reliability across multiple flights.

It needs a supply chain capable of producing vehicles faster.

And eventually, it needs unit economics that work without depending indefinitely on venture capital.

There are also limits to the “cab to space” analogy. A smaller rocket does not automatically mean a better mission. Many small satellites will continue choosing SpaceX because rideshare is simply cheaper. Others may choose established international small-launch providers. And India itself now has multiple private companies attempting to enter the launch market.

Skyroot’s advantage therefore cannot simply be that it is Indian.

It has to be better for a particular type of customer.

Its real market is the satellite operator who looks at a cheap rideshare seat and decides that waiting for the train, sharing the route or accepting the available destination costs more than paying for the cab.

If enough customers make that calculation, Skyroot does not have to replace SpaceX.

It only needs to own that niche.

India’s real SpaceX moment

When SpaceX succeeded in the United States, its biggest contribution was not merely building Falcon 9.

It changed the assumption that orbital launch had to remain almost exclusively the territory of governments and traditional defence contractors.

Skyroot’s significance for India could be similar.

Not because Skyroot is already another SpaceX, it isn't, but because its success proves that an Indian startup can raise private capital, build propulsion systems, manufacture a complete orbital launch vehicle, work with national space infrastructure, obtain regulatory clearance, acquire customers and successfully reach orbit.

That proof changes the risk calculation for the next founder.

And then the next investor.

And eventually the next hundred companies.

This is how industries are created.

They rarely begin because somebody finds a completely empty market. More often, they begin because somebody notices that the dominant player has optimized itself around one set of customers and left another set underserved.

SpaceX optimized launch around scale, reusability and extremely low cost.

Skyroot is betting that some satellite operators will value flexibility, schedule and dedicated access enough to choose a smaller rocket.

Whether that becomes a global business worth many billions of dollars will take years to discover.

But Skyroot has already crossed the first threshold that matters.

In 2018, two former ISRO scientists started building a rocket company in a country that did not yet have a clear commercial pathway for private orbital launches.

Eight years later, their company is worth more than a billion dollars, their first orbital rocket has successfully reached space, and hundreds of other Indian startups are now building alongside them.

That may be the real lesson from India’s “SpaceX moment.”

The opportunity was never necessarily to build another SpaceX.

It was to build the parts of the space economy that SpaceX, and the rest of the world, still cannot serve perfectly.

And sometimes, the billion-dollar business is hiding exactly there.