India's Semiconductor Ambition: Analysis of the Path to 28-Nanometer Chips and 70% Technological Self-Sufficiency Within Four Years

On January 27, 2026, Indian Minister of Electronics and Information Technology Ashwini Vaishnaw announced in New Delhi a goal considered a leapfrog by the industry: India plans to achieve the manufacturing of 3-nanometer advanced chips by 2032 and, within the next four years, reach a technological self-sufficiency rate of 70% to 75% in six key chip categories: computing, RF, networking, power, sensors, and memory. This statement followed his positioning of India as one of the world's four major semiconductor manufacturing hubs at the Davos World Economic Forum. Currently, India's semiconductor market is valued at approximately 50 billion dollars, with 90% reliance on imports, and it ranks only 13th globally in manufacturing. Vaishnaw's blueprint signals that this South Asian giant is attempting to move from the periphery of the global chip supply chain into the core arena dominated by the United States, Taiwan (China), South Korea, and mainland China.

The Strategic Drivers Behind Ambition: Security, Supply Chains, and Markets

From New Delhi's policymakers to the global elite forum in Davos, the core driving force behind India's semiconductor strategy is clearly visible. Data shows that from April to November 2024, 48.5% of India's chip imports came from mainland China and Hong Kong. This dependency poses a significant strategic risk against the backdrop of intensifying U.S.-China technology competition and the continuous extension of U.S. export control measures. The U.S. export controls on advanced chips also apply to India, compelling New Delhi to reassess the resilience of its technology supply chain.

The deeper reason is that semiconductors have become the digital staple of the modern economy. The goal set by the Indian government is not merely to manufacture smartphone chips. Vaishnaw clearly pointed out that mastering these six major categories of chips means India can independently build any major system, such as drones, missiles, artillery, automobiles, railways, and aerospace. This directly points to national defense security, critical infrastructure, and future industrial competitiveness. Since 2021, the India Semiconductor Mission (ISM) has invested over 10 billion dollars, and at the core of its second phase (ISM 2.0) is advancing manufacturing capabilities to the 2-nanometer node. Analysts note that this is a typical crisis-driven industrial policy, whose logic is similar to that of Japan and South Korea in the 1970s and 1980s, but the global competitive landscape it faces is entirely different.

From Blueprint to Wafer: Manufacturing Capability is the Ultimate Test

Grand ambitions require a solid manufacturing foundation to support them, and this is precisely the area where India has repeatedly faced setbacks over the past two decades. Looking back, the two wafer fab projects announced in 2014 came to nothing; in 2023, the joint venture between Foxconn and Vedanta fell apart; in 2025, the $10 billion project between Israel's Tower Semiconductor and India's Adani Group was suspended. A Reuters report attributed part of the failure of the Foxconn-Vedanta project to delays in government approvals. These setbacks have cast a shadow over India's wafer fab dream.

Currently, hopes are pinned on the project under construction in Dholera, in the western state of Gujarat. A joint venture between the domestic giant Tata Group and Taiwan's Powerchip Semiconductor Manufacturing Corporation (PSMC), the facility is expected to be completed this year or next, targeting production capacity for mature process chips at 28 nanometers and above. This is India's first truly large-scale wafer fabrication plant (Fab). Meanwhile, among the 10 semiconductor projects approved by India, most are assembly, testing, marking, and packaging (ATMP) facilities with lower technological barriers and investment requirements. For example, another Tata semiconductor testing plant in Assam has seen its timeline pushed back from mid-2025 to April 2026. The production start date for Micron Technology's ATMP plant in India has also been delayed from the end of 2024 to February 2026.

A positive signal comes from Kane Semiconductor. The company's ATMP facility in Gujarat commenced commercial operations and delivered its first batch of chips to U.S. customers in October 2025, just one year after receiving government approval. This demonstrates India's capability for rapid execution in the back-end of the industrial chain. However, the investment in the ATMP facility is approximately 1.5 billion dollars, while an advanced wafer fab may require up to 10 billion dollars in investment and a construction period of five to six years. Faisal Kawoosa, an analyst at technology research firm TechARC, stated bluntly: Regarding wafer fabs, I still doubt whether we can truly embark on that path. Whether India can bridge the gap from ATMP to advanced manufacturing is key to the success of the 2032 goal.

Ecology, Talent, and Capital: The Triple Challenge of Building Sustainable Competitiveness

Even as manufacturing plants rise from the ground, a healthy semiconductor industry also requires a design ecosystem, high-end talent, and long-term capital. India possesses one-fifth of the world's chip design talent, who work at top companies such as NVIDIA, Texas Instruments, Intel, and AMD. Over the past four years, the India Semiconductor Mission has trained 67,000 students, with the goal of building a robust talent pool of 85,000 individuals within a decade. However, designing competitive chips is far more complex than simply hiring engineers.

Analyst Neil Shah from Counterpoint Research pointed out that designing advanced chips requires a strong R&D team with independent intellectual property generation capabilities, the ability to design customized chips for differentiation, and a complete software stack to support them. This is precisely what India's technology ecosystem currently lacks. Chetranjan Singh, founder and CEO of semiconductor startup Ananant Systems, revealed that approximately 20% of the revenue of Indian chip design companies is spent on intellectual property licensing fees for designs. The majority of global core chip design IP is held by the United States, which accounted for over 37% of global semiconductor IP revenue in 2025. The lack of independent IP means that Indian companies may remain trapped in the mid-to-low value-added segments of the industrial chain for a long time.

Capital is another bottleneck. Developing a core IP design can take four years, followed by another two to three years to transform it into a product, during which there is almost no revenue. Singh stated that Indian venture capital firms supporting early-stage companies often lack the patience to fund such long cycles. His company initially survived thanks to a 6 million USD seed round from an American investor. However, the situation is changing. According to data insights firm Tracxn, venture capital investment in Indian semiconductor startups has surged more than 25-fold over the past four years, reaching 569 million USD in 2025. Venture capital firms such as Speciale Invest, Peak XV, and Blume Ventures are beginning to focus on areas like chip design, IP, and AI hardware. Additionally, the government is revising the Design-Linked Incentive (DLI) scheme, potentially shifting from a reimbursement model to providing upfront funding (in the form of equity or loans), which the industry views as a critical improvement.

Nanotechnology Race: Strategic Choices in Technological Pathways

The 3-nanometer target proposed by Vaishnav for 2032 has sparked a debate within the industry about India's optimal technological path. This touches on a fundamental question: Should India compete head-on with TSMC and Samsung in cutting-edge fields, or focus on the vast and stable market for mature process technologies?

Tata-PSMC factory targets 28nm and above chips, which are widely used in various fields such as automobiles, industrial equipment, household appliances, and more. G.S. Madhusudan, co-founder and CEO of InCore Semiconductors, believes that over the next 20 to 50 years, most consumer and industrial technologies will still rely on mature chips ranging from 60nm to 180nm. It is a myth that technology must continuously shrink and require 3nm chips. He advocates that India should focus on mass-producing and exporting chips valued at 5 to 10 dollars, which power the majority of global electronics. His key milestone is to ship 1 billion chips annually worldwide. Considering U.S. export controls have restricted China's supply in many markets, Madhusudan believes this creates a unique opportunity for India in the low-cost semiconductor sector. If we do not act quickly, this market will be our loss.

However, TechARC's Kawosa holds the opposite view. He believes that the continuous reduction in the physical size of electronic products makes it crucial to target chips below 10 nanometers, which are already used in most smartphones and tablets. Pursuing chips above 28 nanometers is meaningless, as he thinks that market may shrink over time. Shah's analysis is more realistic: for India to produce advanced chips, it would require giants like Intel, TSMC, or Samsung to invest and set up factories in the country. For domestic wafer fabs like Tata, achieving advanced processes would require at least a decade of sustained investment, a stable customer base, IP or technology transfer, and process innovation.

Ultimately, the answer to this debate likely lies somewhere in between. As Vikram Gupta, founder of the venture capital firm IvyCap Ventures, stated, India's goal is not to win the race for the smallest nodes, but to build strategic capabilities and reduce dependencies. Even achieving advanced manufacturing levels domestically would be a significant accomplishment. The government's strategy appears to be advancing on multiple fronts: solidifying the foundation in mature process technologies through projects like Tata-PSMC, while simultaneously incentivizing design innovation through initiatives such as DLI 2.0, thereby accumulating technology and talent for a future leap towards more advanced nodes.

India's Semiconductor Ambition is a High-Stakes Gamble Deeply Tied to National Development. Its success is not only about a market worth hundreds of billions of dollars annually and millions of high-end jobs, but also about whether it can seize the dominance over its own digital destiny in a world of increasingly fragmented geopolitics. From the construction sites in Gujarat to the design centers in Bangalore, this protracted race spanning manufacturing, ecosystems, and strategy has just sounded the charge. The year 2032 may seem distant, but the time window in the semiconductor industry never waits for hesitant competitors.