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SpaceX IPO Expected to Exceed $1.5 Trillion

SpaceX is anticipated to go public at a valuation exceeding $1.5 trillion later this year. A significant aspect of the company’s beginnings lies in NASA awarding SpaceX a $278 million development contract back in 2006. At that time, the firm had fewer than 200 employees and relied on NASA to bolster its revenue for the ensuing decade through various initiatives, such as Commercial Resupply Services and Commercial Crew projects, cumulatively valued at around $15 billion.

The reusable rocket technology marked a groundbreaking achievement. NASA’s contract served as a crucial support mechanism.

India’s Evolving Space Tech Landscape

Proudly, India is home to over 400 space tech startups, benefiting from world-class engineering developed over six decades of ISRO’s leadership. Since 2023, a comprehensive policy framework has facilitated the burgeoning ecosystem, including the emergence of India’s first space tech unicorn.

However, India is yet to establish the procurement infrastructure that propelled SpaceX to a leadership position in the sector. Addressing this deficiency is vital for the Indian space tech industry to maximise its capabilities.

The Vital Role of NASA in SpaceX’s Success

Nasa’s $278 million Commercial Orbital Transportation Services award to SpaceX in 2006 validated the private launch vehicle, funded the development of the Falcon 9 and Dragon, and provided a young, capital-limited company with a sustainable revenue base that no other commercial partner could have supplied at that time. NASA took the initiative to mitigate risks in order to support a new player in the field.

The subsequent 2014 Commercial Crew Transportation Capability contract contributed an additional $2.6 billion, bringing SpaceX’s total revenue from NASA to an estimated $15 billion across various projects.

This layered revenue assurance allowed SpaceX to take risks concerning reusability, a pivotal cost decision in modern aerospace. Currently, Falcon 9 launches payloads to low Earth orbit at about $2,720 per kilogram, a significant drop from the previous $54,500 per kilogram charged on the Space Shuttle.

This continuous cycle nurtured a dominant position. By the second quarter of 2025, SpaceX handled 88% of all spacecraft launched globally and 86% of all mass transported to orbit. The Starlink project, supported by a decade of guaranteed launch demand, generated $11.4 billion in revenue during 2025, which constitutes approximately 61% of the company’s income.

Today, NASA contracts contribute less than 10% to SpaceX’s revenue, often used as an argument that the company has surpassed its government-backed origins. In reality, SpaceX exceeded those limits precisely because of that initial support.

Indian Space Tech: The Engineering Exists, but Revenue Lacks

IN-SPACe’s Decadal Vision envisions a $44 billion Indian space economy by 2033, aiming for an 8% share of the global space market, which includes $11 billion in exports and anticipates around $22 billion in investments throughout the decade. Currently, India’s space economy is estimated to be about $8.4 billion, representing approximately 2% of the global total.

There are reports highlighting 400 Indian space tech firms, of which 78 have received funding, and only 19 have achieved Series A capital or subsequent rounds. Cumulatively, venture and private equity in the sector so far total around $726 million.

The core issue lies deeper. Indian space tech companies have garnered enough investment to develop prototypes, exhibit technical expertise, and reach various regulatory milestones. However, they have not yet secured sufficient revenue to evolve into category leaders.

The leading Indian space tech startups still operate with revenue levels that are drastically lower than what is necessary to finance propulsion development, satellite bus production, or constellation deployment through operational cash flow.

The diagnosis is clear: India is capable of producing skilled talent, innovative prototypes, and compliance milestones, but it still falls short in delivering contracts that would enable the progression into successful enterprises. The shortfall does not stem from a lack of innovation or engineering ability but rather from insufficient market take-up.

The Need for Support Infrastructure

Iteration is critical for reducing costs in space tech. SpaceX’s reusability was the result of numerous test, failure, and refinement cycles that traditional aerospace had not previously pursued. Currently, Indian space tech firms are unable to replicate this iterative process independently.

The aerospace testing infrastructure available in India, including environmental chambers, vibration tables, vacuum facilities, and propulsion test stands, largely sits under ISRO’s control, significantly lengthening private development timelines.

The downstream consequence is evident: investments shift towards ground services, analytics, and satellite data applications, where iteration is more feasible, diverting attention from the more challenging aspects of propulsion, satellite buses, and launch systems.

The US Air Force and Space Force opened their test ranges and tracking facilities to commercial operators a decade ago, complete with published timelines and pricing. India requires a similar strategy. Providing commercial access to ISRO’s various testing facilities governed by clear service agreements and transparent pricing represents the most cost-effective reform available.

Without these measures, domestic propulsion and platform innovation will continue to progress slowly, no matter how much funding becomes available.

The Importance of Intellectual Property Ownership

If India does not establish homegrown intellectual property, its space economy will predominantly assemble imported components rather than create platforms for export. This distinction is crucial, as the capacity to capture value within space tech fundamentally occurs at the IP level.

Key areas where this matters include Space Situational Awareness, Signals Intelligence, Earth Observation, high-strength carbon-carbon composites, space-qualified solar cells, radiation-hardened sensors, communication arrays, and onboard computing systems.

Vendor behaviour is responsive to revenue certainty. In the face of uncertain offtake, firms typically steer clear of IP-related risks, preferring to assemble imported parts based on cost and focus on quick-margin optimisations. With guaranteed offtake, however, the same firms would invest in proprietary platforms, develop intellectual property, and aim for longer-term returns.

Starlink serves as a representative case for vertical IP capture. Its phased array terminal transitioned from approximately $1 million per unit in pre-2015 prototypes to a retail price of $349 by 2025 because SpaceX retained control over design and manufacturing volume.

In principle, ensuring IP creation milestones should be integral to offtake agreements rather than viewed as ancillary outcomes. Capital grants allocated to centres of excellence and research laboratories should also be paired with industry consortia that are entitled to the intellectual property created.

Defence as a Potential Anchor for Growth

The defence sector, along with pertinent Union Ministries, stands as the most significant potential anchor for India’s burgeoning private space industry. A new, suitable procurement model has just been successfully demonstrated.

As it currently stands, India operates fewer than 20 dedicated defence satellites, while China deploys between 250 and 300 military or dual-use satellites. This gap stems from strategic choices rather than technological limitations.

Operation Sindoor in May 2025 showcased the operational capabilities of private space tech, as commercial imagery from Indian firms supplemented Cartosat-2C and RISAT assets. A decision by Defence to scale its network using indigenous providers could increase satellite coverage fivefold for sovereign applications.

The Space-Based Surveillance Phase 3 programme, sanctioned in July 2025, allocates ₹26,968 crore, about $3.2 billion, for 52 surveillance satellites. Of these, 31 will be produced by three Indian private companies, marking the largest validation of the anchor-customer model in Indian space tech history.

Furthermore, the private sector’s consortium won the ₹1,200 crore IN-SPACe Earth Observation constellation contract, outpacing established PSU contractors like Bharat Electronics, reinforcing the potential for private sector engagement. IN-SPACe’s consultation document on Earth Observation explicitly mentions that the Government of India might become an assured customer for data from newly established private constellations.

This ‘might’ should evolve into a ‘will,’ as these developments signify a shift from being mere edge cases to becoming prominent fixtures.

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India Must Build Its Space Tech Companies

India requires a structured, long-term procurement programme dedicated to Intelligence, Surveillance, and Reconnaissance, secure satellite communications, Space Situational Awareness, and Earth Observation constellations. This programme should include published allocations, set indigenisation targets, and ensure intellectual property is brought onshore.

Treating Space Procurement as a Strategic Priority

Space procurement should be approached similar to defence aviation procurement. Instead of being handled as individual projects, it should be regarded as a strategic item with a multi-decade perspective.

The Challenge of Material Supply Chains

The supply chain for India’s space industry heavily relies on imported materials. Items such as fuel cells, battery technologies, space-qualified sensors, photovoltaics, and rare earth metals are part of this dependency. Unlike conventional aerospace, the unique demands of the space sector necessitate a degree of indigenisation that cannot be overlooked.

These challenges are often overlooked in current policy discussions but will significantly impact what Indian private companies can realistically offer the defence and security sectors in the near future.

Implementing a National Supercritical Whole Chain Mission

A comprehensive mission is necessary to address space material dependency, which should map out all import reliance and combine strategic stockpiling with R&D funding for indigenous alternatives. Japan and China have adopted similar approaches, and India must develop its own version.

Developing National Champions in Indian Space Tech

The Indian government has been a supportive observer of the private space technology sector. However, it now needs to engage as a substantial customer.

SpaceX’s success was not solely based on subsidies; instead, it stemmed from dependable procurement strategies. Long-term, multi-billion-dollar contracts provided revenue certainty, allowing capital markets to assess growth and enabling founders to pursue long-term cost reduction strategies.

Currently, India boasts around 400 spacetech startups, a Decadal Policy Vision, a ₹1 Lakh Cr R&D grants fund, along with a ₹26,968 Cr SBS Phase 3 programme that demonstrates scalable success. The next step is to standardise this model.

Elevating Indian Space Tech Through Financial Commitment

ISRO has established India’s credibility in space technology over the past sixty years through its scientific and engineering prowess. The government’s current responsibility is to elevate Indian space tech enterprises, which necessitates significant financial commitments that only the state can provide, ensuring they are sufficient in scale and duration to cultivate National Champions.

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