Expediting India’s New Space Economy by Strengthening Industry – Academia – Government Collaboration

Not long ago, landing on the Moon felt like a distant dream for India, reaching Mars felt even further. Today, both are history. 

India not only achieved these remarkable feats but did so at a fraction of the cost borne by other spacefaring nations, giving a strong boost to its space economy, valued at USD 8.4 billion (as of 2022). This growth has been driven by the tremendous work by ISRO, progressive government policy reforms, industry, startups and academia.  To reach the projected USD 44 billion mark by 2033, strong engagement between industry, academia, and government will be pivotal. This collaboration is best understood through what is known as the Triple Helix Model. 

Importance of the Triple Helix Model

Each stakeholder in this model plays a distinct yet interdependent role: academia as the source of knowledge, industry as the driver of commercialization, and government as enabling theory of continuity and policy support. Innovation must be nurtured across the entire value chain- from foundational research to end-use applications. 

Effective coordination among these three pillars is essential to make space technology a critical factor in nation-building. In this regard, the Indian Space Policy 2023 was crucial in decoupling the regulatory, promotional, and operational aspects of space activities, allowing ISRO to focus on advanced R&D while enabling the private sector to lead commercial launches and satellite services. 

Academia as a Foundational Stone 

Academia, as the foundation of innovation, must move beyond traditional roles of publishing research and actively contribute to system validation and product-oriented innovation.  This also requires a demand-driven research model where industry requirements dictate academic focus areas, thereby ensuring that university-led innovations possess the technological maturity required for immediate commercial deployment.

While translational research can act as a bridge between fundamental discoveries and industrial applications, realising these potential calls for targeted intervention, funding mechanisms, and institutional support for the same. 

To facilitate this, university campuses also need physical infrastructure such as testing rooms and testing laboratories. Students must engage with flight hardware and ground station operations during their formative years to bridge the gap between abstract mathematical modeling and practical engineering.

To address the issue of talent retention, structured internship programs and Student Immersion Programs should allow young engineers to experience the high-velocity environment of space-tech startups, fostering an entrepreneurial mindset early in their careers. 

Role of Other Institutions 

Beyond academia itself, several institutions are actively building the bridges the collaboration depends on. ISRO is uniquely positioned to facilitate this collaboration through its RESPOND programme, under which it provides specific research problems to universities and reviews the research proposals for funding and collaborative development. It has also established several specialized centers to foster regional academic growth, such as Space Technology Cells (STCs), Space Technology Incubation Centers (S-TIC), Regional Academic Centers for Space (RAC-S) and Satish Dhawan Centre for Space Sciences at the Central University of Jammu. 

Similarly, IN-SPACe has also developed a ladder of programs to transition participants from student life to successful entrepreneurship by offering them seed funds, venture capital funds and Technology Adoption Fund (TAF). 

The newly established Anusandhan National Research Foundation (ANRF) is positioned to bridge the gap between fundamental academic research and commercially viable space technologies by funding high-risk, high-reward research.

Industry as the Commercial Engine

For decades, India’s private space sector played a supporting role- acting largely as vendor-suppliers manufacturing individual components to ISRO’s exact blueprints. Today, that relationship is fundamentally changing. Thanks to historic technology transfers that are handing over the manufacturing of entire rockets like the Small Satellite Launch Vehicle (SSLV) and the workhorse PSLV to commercial entities, Indian companies are shifting from part-makers to independent mission leaders.

But while building and launching rockets is what captures our imagination, the true economic frontier of this new space age actually lies closer to Earth. The massive growth projected for the next decade will be driven by downstream data. By leveraging satellite imagery and communication bandwidth, Indian space-tech startups are turning space infrastructure into everyday tools on the ground- revolutionizing everything from smart agriculture and climate tracking to maritime logistics and fintech.

This is exactly why the Triple Helix model matters. Government policy sets the stage, and academic research provides the spark, but it is the industry that finally builds the engine, scaling raw innovation into real-world value.

The Future 

India’s transition into a global space powerhouse is contingent on the seamless integration of its academic, industrial, and government pillars. Through initiatives like Antariksh Prayogshala and milestone-based funding, the framework for deeper integration has already been set. By shifting the national strategy from a government-led model to a vibrant private sector-driven system, the trajectory for India’s space economy is well-established. The vision of a Viksit Bharat 2047 is not merely an aspirational target, but a practical mandate requiring indigenous technological self-reliance, an agile regulatory framework, and a cultural embrace of entrepreneurial risk.