From Nehru's Vision to the NRF: Charting India's STI Policy Evolution

The Genesis: Forging a ‘Scientific Temper’ in a New Republic

The story of India’s Science, Technology, and Innovation (STI) policy is inextricably linked to the very idea of modern India. In the aftermath of independence, Prime Minister Jawaharlal Nehru, the architect of modern India, envisioned a nation built not just on political freedom but on a foundation of reason, rationality, and scientific inquiry. He championed the concept of “scientific temper,” a philosophical cornerstone that positioned science and technology as the primary instruments for achieving social justice, economic development, and national self-reliance. This Nehruvian vision was not merely rhetoric; it was institutionalized through a series of foundational policies and the creation of a vast public-sector R&D infrastructure that would define India’s scientific trajectory for decades. This was a deliberate choice to use science as a tool for nation-building, to leapfrog the stages of industrial development that other nations had taken centuries to traverse, and to secure India’s sovereignty in a world defined by technological prowess.

The initial phase was characterized by a state-led, top-down approach, focusing on building indigenous capacity in strategic sectors like atomic energy, space, and defense. The goal was import substitution and strategic autonomy in a world dominated by Cold War politics. Over the decades, this foundational model has undergone a profound and continuous evolution, mirroring India’s own economic and geopolitical transformations. From a closed-off focus on self-reliance, the policy landscape has gradually opened up, embracing technology commercialization, public-private partnerships, and, most recently, a dynamic, decentralized, and innovation-centric ecosystem. The latest reforms, particularly the establishment of the Anusandhan National Research Foundation (NRF) in 2023 and the strategic push towards a National Deep Tech Startup Policy (NDTSP), represent the most radical and ambitious restructuring of this landscape to date, aiming to catapult India into the top tier of global scientific powers. This journey reflects a maturing understanding that scientific leadership in the 21st century is less about state-controlled behemoths and more about fostering a vibrant, interconnected ecosystem where ideas can flow freely from universities to startups and from corporations to the grassroots.

Fun Fact: The term “scientific temper” was coined by Jawaharlal Nehru and first used in his 1946 book, The Discovery of India. It represents an attitude of logical and rational thinking and is enshrined as a fundamental duty in Article 51A(h) of the Indian Constitution, which calls upon every citizen “to develop the scientific temper, humanism and the spirit of inquiry and reform.”

Phase I: The Foundational Era (1950s - 1980s) - The Scientific Policy Resolution of 1958

The first formal articulation of India’s commitment to science was the Scientific Policy Resolution (SPR) of 1958. This landmark document, passed by the Indian Parliament, was more than a policy; it was a declaration of faith in science as the engine of national progress. It was a visionary statement that recognized that the future belonged to those who “make friends with science.”

Core Tenets of SPR 1958:

• State Patronage: It firmly established that the cultivation of science and scientific research would be a primary responsibility of the State. This was a direct consequence of the near-total absence of private industrial R&D at the time. The state was seen as the only entity with the resources and the long-term vision to build a scientific base from scratch.
• Building Human Capital: The policy emphasized providing high-quality scientific education and ensuring an adequate supply of scientists. This led to the establishment of the prestigious Indian Institutes of Technology (IITs) and a network of universities and technical colleges.
• Fostering Research: It aimed to “foster, promote, and sustain” the cultivation of science and scientific research in all its aspects—pure, applied, and educational. This was the philosophical justification for creating a vast infrastructure of national laboratories.
• Strategic Autonomy: The underlying goal was to reduce dependence on foreign aid and technology by building a strong domestic scientific base. This was crucial for a non-aligned India navigating the treacherous waters of Cold War geopolitics.

The SPR 1958 led to the creation of a formidable, state-funded R&D ecosystem. This included the expansion of the Council of Scientific and Industrial Research (CSIR), and the establishment of mission-driven agencies like the Defence Research and Development Organisation (DRDO), the Department of Atomic Energy (DAE) under the leadership of Homi J. Bhabha, and later the Indian Space Research Organisation (ISRO), born from the vision of Vikram Sarabhai. This era was defined by mission-oriented “big science” projects of national importance. The tangible successes were monumental: the Green Revolution, which ensured food security for millions; the White Revolution (Operation Flood), which made India the world’s largest milk producer; and the development of independent nuclear and space capabilities, which cemented India’s status as a strategic power. The focus was squarely on building capacity and achieving self-reliance, with little emphasis on commercialization or private sector involvement. Science was a public good, pursued for national prestige and strategic necessity.

Phase II: The Technology Push (1980s - 2000s) - The Technology Policy Statement of 1983

By the 1980s, a critical gap had become apparent. India was producing world-class science in some areas, but this knowledge was often confined to the ivory towers of national laboratories. The challenge was to translate this knowledge into usable technology that could drive industrial growth and improve the lives of ordinary citizens. This realization led to the Technology Policy Statement (TPS) of 1983. The TPS marked a subtle but significant shift in focus from ‘Science’ to ‘Technology’, from knowledge creation to knowledge application.

Key Objectives of TPS 1983:

• Technological Self-Reliance: The goal moved from scientific self-reliance to attaining technological competence and self-reliance. The focus was on developing the capability to not just understand but also to design, build, and adapt technology.
• Appropriate Technology: It emphasized the development and application of technologies that were appropriate for India’s socio-economic conditions, focusing on generating employment and using local resources.
• Technology Transfer: The policy explicitly addressed the need for efficient transfer of technology from the laboratory to the industry, a concept often termed ‘lab-to-land’.
• Strategic Technology Acquisition: While promoting indigenous development, it also laid down principles for the selective acquisition and absorption of foreign technology to avoid reinventing the wheel.

This period saw the establishment of the Technology Information, Forecasting and Assessment Council (TIFAC) and the Technology Development Board (TDB) to facilitate the commercialization of indigenous technology and to create a roadmap for future technological needs. The economic liberalization of 1991 provided a major, albeit disruptive, impetus to this phase. As Indian markets opened up, domestic industry was forced to compete with global players, making technological upgradation a matter of survival. The state’s role began to shift from being the sole provider to a facilitator of technological development, encouraging industry to invest in its own R&D.

Phase III: The Innovation Imperative (2000s - 2010s) - The Science and Technology Policy of 2003

The new millennium brought a new buzzword into the policy lexicon: “Innovation.” The world was entering the era of the knowledge economy, and it was clear that economic competitiveness would be driven not just by technology adoption but by the continuous creation of new products, processes, and business models. The Science and Technology Policy (STP) of 2003 was the first to explicitly integrate the concept of innovation into the national framework.

Hallmarks of STP 2003:

• Connecting S&T to the Economy: It aimed to build a National Innovation System, a framework of strong linkages between academia, R&D institutions, and industry to foster a seamless flow of knowledge and ideas.
• Intellectual Property Rights (IPR): The policy placed a strong emphasis on generating and protecting intellectual property. It encouraged scientists and institutions to patent their inventions, viewing IPR not just as a protective tool but as a key indicator of innovation output.
• Public-Private Partnerships (PPPs): STP 2003 was a strong proponent of PPPs in R&D, acknowledging the limitations of purely public funding and the need to leverage private sector dynamism and market knowledge.
• Increased Investment: It set an ambitious goal to increase the Gross Expenditure on R&D (GERD) to 2% of the Gross Domestic Product (GDP) by the end of the Tenth Five-Year Plan.

This policy laid the groundwork for India’s rise in the global knowledge economy, particularly in sectors like IT, biotechnology, and pharmaceuticals. However, the goal of raising GERD to 2% of GDP remained elusive, hovering stubbornly around 0.6-0.7%, a persistent challenge that continues to this day.

Phase IV: The Decade of Innovation & Recent Disruptions (2013 - Present)

The last decade has witnessed the most rapid and transformative changes in India’s STI ecosystem, driven by a desire to solve societal challenges and compete at the global high-technology frontier.

Science, Technology and Innovation Policy (STIP) 2013

STIP 2013 was framed with the aspirational tagline, “Science, Technology, and Innovation for the People.” It sought to position India among the top five global scientific powers by linking STI to socio-economic development.

Key Thrusts of STIP 2013:

• People-Centric Focus: It aimed to use STI to find affordable and sustainable solutions for societal challenges in areas like food and nutrition security, healthcare, water, and energy.
• The “Decade of Innovation”: It built upon the government’s declaration of 2010-2020 as the “Decade of Innovation,” seeking to create a policy environment to support this goal.
• Private Sector R&D: The policy strongly encouraged the private sector to invest in R&D, proposing fiscal incentives like weighted tax deductions.
• Reiterating the GERD Target: It once again set the target of increasing GERD to 2% of GDP and called for stimulating private sector investment to contribute at least half of this.

Statistic: Despite the ambitious targets set in 2003 and 2013, India’s GERD as a percentage of GDP stood at approximately 0.64% in 2021, significantly lower than that of other major economies like the USA (3.45%), China (2.4%), and Israel (5.44%). This “GERD gap” remains a central challenge for the Indian STI ecosystem.

The Draft Science, Technology and Innovation Policy (STIP) 2020: A Radical Rethink

The draft STIP 2020, formulated in the crucible of the COVID-19 pandemic, represented a paradigm shift in policy-making. It was built on a core philosophy of being decentralized, evidence-informed, bottom-up, and expert-driven. Though it remains a draft, its ideas have profoundly influenced the direction of subsequent reforms.

Pioneering Concepts in Draft STIP 2020:

• Open Science Framework: Its most radical proposal was to create a “one-nation, one-subscription” portal for all scientific journals, making knowledge accessible to every Indian. This aimed to break down information silos and democratize access to knowledge, a departure from the expensive subscription models of academic publishing.
• Decentralization: It moved away from a top-down model, proposing a decentralized structure with four interconnected tracks to govern the STI ecosystem.
• Focus on Inclusion & Equity: The policy had a strong focus on promoting equity and inclusion, aiming to increase the participation of women to at least 30% in the scientific workforce and ensuring the benefits of STI reached marginalized communities.
• STI Observatory: It proposed the establishment of a central STI Observatory to act as a repository for all data related to the Indian STI ecosystem, enabling evidence-based policymaking.

While not formally adopted, STIP 2020’s emphasis on democratization, data-driven governance, and breaking down silos set the stage for the most significant reform in decades: the NRF.

Comparative Analysis of India’s STI Policies

The New Frontier: NRF and Deep Tech (2023 Onwards)

The most recent developments signal a decisive break from the past, focusing on overhauling the funding architecture and strategically nurturing technologies of the future.

The Anusandhan National Research Foundation (NRF) Act, 2023

Enacted in August 2023, the NRF Act is arguably the most transformative STI policy intervention since the 1950s. It establishes a new apex body to provide high-level strategic direction and, crucially, to fund and foster research and innovation across the length and breadth of the country. The NRF replaces the Science and Engineering Research Board (SERB), which was established in 2008, and aims to correct several long-standing distortions in India’s research landscape.

The Problems NRF Aims to Solve:

1. Skewed Funding: The vast majority of R&D funding in India has historically gone to a handful of elite institutions (like IITs, IISc, and CSIR labs), while universities, which house over 80% of the country’s researchers (faculty and PhD students), receive a minuscule share.
2. Disciplinary Silos: Funding has been fragmented across various government departments (like DST, DBT, CSIR), leading to duplication of effort and a lack of support for inter-disciplinary research.
3. Low Private Sector Contribution: Private sector R&D investment remains low, and there are few mechanisms to encourage industry-academia collaboration on a large scale.

Structure and Mandate of the NRF:

• Apex Body: The NRF is an apex body with a Governing Board chaired by the Prime Minister of India, with the Union Ministers for Science & Technology and Education as Vice-Presidents. This high-level oversight signals its national importance.
• Holistic Funding: A key feature is that the NRF will fund research not just in natural sciences and engineering but also in humanities, social sciences, and the arts, promoting a holistic and well-rounded research culture.
• Seeding Research in Universities: The primary mandate of the NRF is to “seed, grow and promote” R&D in universities and colleges, including state universities, where research capabilities are currently underdeveloped.
• Ambitious Funding Model: The Act envisages a budget of ₹50,000 crore over five years (2023-2028). Critically, it anticipates that ₹36,000 crore (around 70%) will come from the private sector and philanthropic sources, with the government contributing ₹14,000 crore. This represents a massive push towards mobilizing private capital for national research priorities.

Analogy: The NRF can be thought of as India’s version of the National Science Foundation (NSF) in the USA, but with a broader, more corrective mandate. While the NSF funds basic research in a mature ecosystem, the NRF is designed to both fund excellence and, more importantly, build research capacity from the ground up in institutions that have been historically neglected.

The Draft National Deep Tech Startup Policy (NDTSP), 2023

Released in July 2023 for public consultation, the NDTSP signals India’s ambition to become a leader, not a follower, in the next wave of technological disruption. Deep Tech refers to startups whose business model is based on high-tech innovation or significant scientific advances. These are companies working on fundamental breakthroughs in areas like AI, quantum computing, genomics, semiconductors, and advanced materials.

The policy recognizes that Deep Tech startups have unique challenges: long gestation periods, high capital requirements, and significant technical risk. The NDTSP aims to create a comprehensive ecosystem to address these challenges.

Key Pillars of the Draft NDTSP:

1. Nurturing Research, Development & Innovation: Strengthening the research base for deep tech.
2. Strengthening the Intellectual Property Regime: Streamlining the patent process and providing support for IP strategy.
3. Facilitating Access to Funding: Creating dedicated long-term funds for deep tech ventures.
4. Enabling Shared Infrastructure and Resource Sharing: Providing access to expensive labs, testing facilities, and high-performance computing.
5. Creating a Conducive Regulatory Environment: Simplifying regulations for deep tech startups.
6. Human Capital Development: Building a skilled talent pool for the deep tech sector.

Mnemonic for NDTSP Pillars: To remember the key areas of focus for the Deep Tech policy, think “RICH-F”:

• R - Research & Development
• I - IP Regime
• C - Capital (Funding)
• H - Human Capital
• F - Facilities (Infrastructure) & Favorable Regulations

This policy is a strategic imperative. In an era of geopolitical competition over technology, self-reliance in critical areas like semiconductors and AI is not just an economic goal but a matter of national security.

Critical Policy Appraisal

Analytical Lens: UPSC Focus (Mains & Prelims)

Conceptual Basis

The constitutional and philosophical backbone of India’s STI policy is Article 51A(h) of the Indian Constitution, which lists developing “scientific temper, humanism and the spirit of inquiry and reform” as a Fundamental Duty for every citizen. This constitutional mandate elevates the pursuit of science beyond a mere policy choice to a core national value.

UPSC Integration: Connecting the Dots

• GS Paper 3 (Economy): STI policy is directly linked to economic growth, industrial policy (Make in India, PLI schemes), IPR issues, and the startup ecosystem. The GERD metric is a key indicator of economic health and future competitiveness. The NDTSP is a cornerstone of India’s strategy to build a $1 trillion digital economy.
• GS Paper 2 (Polity & Governance): The evolution of STI policy reflects the changing role of the state, from a central provider to a facilitator. The NRF Act 2023 is a major governance reform, creating a new institutional architecture for R&D funding and altering the dynamics between the Centre and States in higher education and research.
• GS Paper 2 (International Relations): Technological prowess is a key determinant of global standing. India’s capabilities in space (ISRO), defense (DRDO), and now emerging deep tech sectors are crucial elements of its foreign policy, strategic autonomy, and its role in groupings like the Quad, which has a strong focus on critical and emerging technologies.

Future Impact & Policy Relevance

The twin reforms of the NRF Act and the upcoming NDTSP represent a fundamental pivot in India’s development strategy. If implemented successfully, they could unlock immense potential. The NRF’s focus on democratizing research by funding universities could create a much larger and more diverse talent pool, preventing the concentration of research excellence in a few “islands.” The Deep Tech policy is a forward-looking bet on India’s ability to innovate at the frontier, moving beyond its reputation as a service-led economy.

The long-term impact could be a more resilient, competitive, and equitable economy. However, the key challenges will be in execution: mobilizing the massive private sector funding for the NRF, cutting through bureaucratic inertia, and building a truly risk-taking culture that is essential for deep tech innovation. The success or failure of these policies will significantly determine India’s economic trajectory and geopolitical standing over the next two decades.

Prelims Practice Question (MCQ)

Question: The recently enacted Anusandhan National Research Foundation (NRF) Act, 2023, establishes the NRF as an apex body to fund and promote research in India. Which of the following existing statutory bodies will be subsumed into the NRF?

a) Council of Scientific and Industrial Research (CSIR) b) Technology Development Board (TDB) c) Science and Engineering Research Board (SERB) d) Defence Research and Development Organisation (DRDO)

Answer: (c) Science and Engineering Research Board (SERB)

Explanation: The NRF Act, 2023, explicitly repeals the Science and Engineering Research Board Act, 2008, and subsumes the SERB into the new, broader structure of the NRF. The NRF is designed to have a much wider mandate than SERB, covering all disciplines and with a specific focus on building research capacity in universities.

Mains Sample Question

Question (15 Marks): “The evolution of India’s Science, Technology, and Innovation (STI) policy reflects a paradigm shift from state-led self-reliance to fostering a decentralized, innovation-driven ecosystem.” Critically analyze this statement in the context of the recently established Anusandhan National Research Foundation (NRF).

Mind Map Outline (Revision Structure)

• Evolution of Indian STI Policy
  • Core Philosophy: The concept of “Scientific Temper” (Article 51A(h)).
  • Phase I: Foundational Era (1950s-1980s)
    • Policy: Scientific Policy Resolution (SPR), 1958.
    • Focus: State-led, self-reliance, capacity building.
    • Institutions: CSIR, DAE, DRDO, ISRO, IITs.
    • Outcomes: Green Revolution, strategic autonomy in space and nuclear sectors.
  • Phase II: Technology Push (1980s-2000s)
    • Policy: Technology Policy Statement (TPS), 1983.
    • Focus: Technological competence, lab-to-land transfer.
    • Context: Post-liberalization competitiveness.
    • Institutions: TDB, TIFAC.
  • Phase III: Innovation Imperative (2000s-2010s)
    • Policy: Science and Technology Policy (STP), 2003.
    • Focus: National Innovation System, IPR, PPPs.
    • Goal: Increase GERD to 2% of GDP.
  • Phase IV: Decade of Innovation & Disruption (2013-Present)
    • Policy 1: STIP, 2013 (“STI for the People”).
      • Focus: Societal challenges, reiterating GERD target.
    • Policy 2: Draft STIP, 2020 (Radical Rethink).
      • Core Ideas: Open Science, Decentralization, Equity.
• The New Frontier (2023 Onwards)
  • Anusandhan National Research Foundation (NRF) Act, 2023
    • Purpose: Overhaul research funding architecture.
    • Problems Solved: Skewed funding, disciplinary silos, low university research.
    • Structure: PM-headed Governing Board.
    • Mandate:
      • Fund all disciplines (including humanities).
      • Seed research in universities.
    • Funding: ₹50,000 crore over 5 years (70% from private sector).
    • Subsumes: Science and Engineering Research Board (SERB).
  • Draft National Deep Tech Startup Policy (NDTSP), 2023
    • Purpose: Build an ecosystem for startups based on scientific breakthroughs.
    • Focus Areas: AI, Quantum, Genomics, Semiconductors.
    • Pillars (Mnemonic: RICH-F): Research, IP, Capital, Human Capital, Facilities/Regulations.
• Critical Analysis
  • Challenges: Low GERD, bureaucracy, brain drain, uneven research landscape.
  • Opportunities: NRF’s funding model, Deep Tech focus, demographic dividend.
• UPSC Focus
  • Constitutional Basis: Article 51A(h).
  • Inter-Topic Linkages: Economy (GS3), Polity (GS2), IR (GS2).
  • Practice Questions: Prelims MCQ and Mains analysis question.