From Jugaad to Global Giant: Why Indian Innovation Struggles to Scale
India has a long history of pioneering technological ideas, from early semiconductors to handheld computers. Yet, it has often failed to convert these inventions into globally dominant industries. We explain the historical reasons for this 'scaling gap' and the new policy shifts aimed at changing the narrative.
The Pre-requisite: Understanding India's Innovation Landscape
To grasp why scaling has been a persistent challenge for Indian technology, one must first understand the key concepts, historical context, and institutional players that have shaped its journey. This section provides the foundational knowledge needed to analyse the issue.
(1) KEY TERMS
- Jugaad: A colloquial Hindi term referring to a non-conventional, frugal, or improvised solution to a problem. While celebrated for its ingenuity, it is often associated with short-term fixes rather than scalable, robust systems.
- Frugal Innovation: A more formalised concept than Jugaad, it involves developing high-value products and services at a fraction of the cost. India's success in space missions like Mangalyaan is a prime example.
- Semiconductor Complex Limited (SCL): A public sector undertaking incorporated in 1983 in Mohali, Punjab, to design and manufacture semiconductor integrated circuits. It represented India's early, ambitious foray into a critical technology sector.
- Simputer: A low-cost, portable handheld computer conceived in 1998 by scientists at the Indian Institute of Science, Bengaluru. It was designed for multilingual use and aimed to bring computing to the masses, predating many features of modern smartphones.
(2) BACKGROUND & TIMELINE
India's technology story is marked by early state-led initiatives followed by a gradual opening to private enterprise and, more recently, a push for creating large-scale digital platforms.
- 1967: The Electronics Corporation of India Limited (ECIL) is established in Hyderabad to build indigenous capabilities in strategic electronics and computers, particularly when India faced technology embargoes.
- 1983: The Semiconductor Complex Limited (SCL) is incorporated, with its manufacturing plant in Mohali commencing production in 1984.
- 1989: A major fire at the SCL facility cripples its fabrication capabilities, a significant setback to India's semiconductor ambitions from which it never fully recovered.
- 1991: The Centre for Development of Advanced Computing (C-DAC) develops PARAM 8000, India's first indigenous supercomputer, demonstrating self-reliance in high-performance computing.
- 1998: The concept of the Simputer is developed at the Indian Institute of Science, Bengaluru. It gains international attention but ultimately fails to achieve commercial scale.
- 2009: The Unique Identification Authority of India (UIDAI) is established to issue Aadhaar, a 12-digit unique identity number designed for population-scale implementation.
- 2016: The National Payments Corporation of India (NPCI) launches the Unified Payments Interface (UPI), a digital payments platform that has become a global case study in scaled innovation.
- 2021: On December 15, the Government of India approves the India Semiconductor Mission (ISM) with a significant financial outlay to build a domestic manufacturing ecosystem.
(3) INSTITUTIONAL FRAMEWORK
Several government bodies are central to formulating and implementing India's science and technology policy.
- Ministry of Electronics and Information Technology (MeitY): The nodal ministry for promoting e-governance, the electronics industry, and the IT sector. It is the implementing agency for key initiatives like the India Semiconductor Mission and policies related to Artificial Intelligence.
- Department of Science and Technology (DST): A department under the Ministry of Science and Technology, it is the primary body for formulating and administering rules and laws relating to science and technology in India.
- NITI Aayog (National Institution for Transforming India): The government's premier policy think tank. It plays a crucial role in developing long-term strategy, releasing the 'National Strategy for Artificial Intelligence #AIFORALL' discussion paper in June 2018.
- Department of Space (DoS) / ISRO: The Indian Space Research Organisation, under the DoS, is responsible for the national space programme. It has become a global exemplar of frugal innovation and scaled success with missions like Chandrayaan and Mangalyaan.
The Core of the Matter: Explaining the 'Scaling Gap'
India's technological prowess has never been in doubt, but its ability to translate that prowess into globally competitive commercial enterprises has been inconsistent. The journey from a promising prototype to a world-beating product has often been where the country has faltered. This section breaks down the reasons for this gap, examines historical precedents, and analyses the current policy response.
What is the core paradox of Indian innovation?
The central paradox is the stark contrast between India's demonstrated capacity for invention and its historical struggle with commercial scaling. As Kiran Mazumdar-Shaw, Executive Chairperson of Biocon Limited, has noted, India frequently anticipated transformative technologies but failed to build dominant industries around them. This pattern is visible across decades. For instance, India established the Semiconductor Complex Limited (SCL) in 1983, when the global semiconductor industry was still nascent. This early vision, however, did not translate into a manufacturing powerhouse comparable to Taiwan's TSMC or South Korea's Samsung. The issue was not a lack of scientific talent but a failure to create the ecosystem required for industrial scale, a problem compounded by a devastating fire at the SCL plant in 1989.
This is not an isolated case. The Electronics Corporation of India Limited (ECIL), founded in 1967, successfully developed indigenous computers and control systems to ensure technological self-reliance during periods of international sanctions. However, its focus remained on strategic and public-sector needs rather than commercial, global competition. Consequently, its scientific achievements remained largely institutionalised, failing to spawn a wider industrial ecosystem that could compete on the world stage.
Why did pioneering projects like the Simputer fail to take off?
The story of the Simputer, conceived in 1998, is a powerful case study in this 'invention-to-scale' gap. The device was a low-cost, multilingual handheld computer that anticipated many features of the smartphones and tablets that would arrive years later. Despite its innovative design, the Simputer could not achieve mass-market success. The primary reason, as analysts point out, was the absence of a mature supporting ecosystem. In the late 1990s, India lacked a robust venture capital culture to fund hardware startups, a sophisticated component supply chain, and a large-scale consumer market ready for such a device. In contrast, when Apple launched the iPhone in 2007, it did so within a highly developed ecosystem of capital, software (the App Store), and global supply chains, allowing it to achieve unprecedented scale.
The lesson from SCL and the Simputer is consistent: being first with an idea matters little without the capacity to build, commercialise, and scale it. The analysis by Mazumdar-Shaw suggests that India often 'stopped too soon', celebrating the technological achievement of the prototype without building the industrial and financial infrastructure needed for global dominance.
Where has India succeeded, and what do these successes teach us?
The narrative is not one of uniform failure. India's pharmaceutical industry evolved into a global manufacturing leader, earning the title 'pharmacy of the world' through process innovation and a focus on affordable, large-scale manufacturing. Similarly, the Indian Space Research Organisation (ISRO) has demonstrated how 'frugal innovation' can achieve world-class results with missions like Chandrayaan and Mangalyaan.
More recently, India's Digital Public Infrastructure (DPI) offers the most compelling model of successful scaling. Aadhaar, the national biometric identity system launched in 2009, was built to cover over a billion people. Following this, the Unified Payments Interface (UPI), launched in 2016, revolutionised digital payments by creating an open, interoperable platform. According to the National Payments Corporation of India (NPCI), UPI processed 14.04 billion transactions in May 2024 alone. The key lesson from UPI and Aadhaar is that they were designed for scale from day one, with a clear architectural vision for population-wide adoption. This 'platform thinking' created an ecosystem where private companies could build services on top, fostering innovation and growth.
How is the government trying to bridge the gap now?
The government's current strategy in critical technologies appears to have internalised the lessons from past failures, shifting from isolated invention to a holistic, ecosystem-centric model. The India Semiconductor Mission (ISM), approved in December 2021 with a financial outlay of ₹76,000 crore ($10 billion), exemplifies this. The objective is not just to build a few fabrication plants (fabs) but to foster a complete ecosystem, including chip design, assembly, testing, and packaging. By offering significant capital subsidies, the government aims to de-risk private investment, a key hurdle that stalled earlier efforts. This has led to the approval of major projects, including fabs by the Tata Group in Gujarat and an assembly plant by Micron Technology.
Similarly, the National Quantum Mission, approved in April 2023 with a budget of ₹6,003.65 crore over eight years, aims to seed an ecosystem for quantum technology by funding research, technology development, and human resources. This reflects a conscious effort to move beyond celebrating lab-scale achievements and focus on building the entire value chain required for industrial-scale success. This approach is designed to create a self-sustaining cycle of research, commercialisation, and talent development.
Conclusion: From Inventing First to Scaling Best
Why does this topic matter right now?
India stands at a critical technological inflection point. Artificial intelligence, quantum computing, and advanced manufacturing are set to redefine the global economic and geopolitical landscape, much as semiconductors and software did in the last half-century. The global race in these domains is intensifying. The ability to not just participate but lead will depend on mastering the art of scaling innovation. The lessons from SCL's stalled progress and the Simputer's commercial failure are more relevant than ever; a repeat of this pattern would mean missing a generational opportunity to transition from a technology consumer to a technology shaper.
What is the likely trajectory in the next 1-5 years?
The next five years will be a crucial test for India's new, ecosystem-focused policy approach. The success of the India Semiconductor Mission will be a key barometer. The first chip fabrication plants under this scheme, such as the Tata-PSMC facility in Dholera and the Micron plant in Sanand, are expected to commence production in late 2026. Their ability to operate efficiently and integrate into global supply chains will be closely watched. In parallel, the National Quantum Mission's eight-year timeline, which began in 2023, will see the establishment of thematic hubs and initial technology demonstrators. The immediate trajectory involves attracting substantial private and global capital, fostering industry-academia collaboration, and ensuring policy continuity to build investor confidence.
What are the governance and societal implications?
The core implication is a strategic shift from a primary focus on technological self-reliance ('atmanirbharta') to an integrated vision that combines it with global competitiveness. Success would mean creating high-value jobs, reducing critical import dependencies in areas like electronics, and gaining a significant foothold in the technologies of the future. The societal impact could be profound. As Kiran Mazumdar-Shaw argues, just as UPI democratised financial access, India is positioned to 'democratise intelligence' with low-cost, accessible AI models. This ambition to make cutting-edge technology affordable and ubiquitous could become India's unique contribution. Ultimately, the challenge is to transform India's well-established ingenuity into enduring, globally competitive industries. The countries that lead tomorrow may not be those that invent first, but those that scale best.