India’s Semiconductor Push

Context: Prime Minister of India inaugurated the commercial production phase of the CG Semi Outsourced Semiconductor Assembly and Test (OSAT) facility in Sanand, Gujarat.

About India’s Semiconductor Push:

What it is?

• India’s semiconductor push is a comprehensive, state-backed industrial strategy aimed at building a localized, full-stack electronics value chain spanning chip design, fabrication, assembly, testing, and packaging. Governed by the India Semiconductor Mission (ISM), this initiative seeks to transition the country from a mere consumer of foreign microelectronics to a self-reliant global manufacturing hub.

Semiconductor Infrastructure Created So Far:

• The Sanand OSAT Packaging Cluster: Gujarat’s Sanand has emerged as India’s premier chip-packaging hub, housing three massive, distinct operational facilities: Micron Technology’s ATMP facility, the Kaynes Semicon OSAT unit, and the newly commercialized CG Semi plant.
• The Mega Wafer Fabrication Plant: Tata Electronics Private Limited (TEPL), in a multi-billion-dollar partnership with Taiwan’s PSMC, is setting up India’s first commercial silicon fabrication foundry in Dholera, Gujarat, aiming for first silicon output by late 2026.
• Advanced 3D Packaging Infrastructure: India executed the groundbreaking of its first specialized Heterogeneous Integration and advanced 3D semiconductor packaging unit in Bhubaneswar, Odisha, to fuel AI and defense applications.
• Design-Linked Incentive (DLI) Ecosystem: The Ministry of Electronics and Information Technology (MeitY) actively supports 24 fabless semiconductor design startups backed by a database of over 67,000 students trained on advanced EDA design tools.

Importance of Semiconductors to the Nation:

• The Core of National Security: Microchips are the absolute backbone of critical defense infrastructure, powering advanced guidance systems, secure aerospace satellites, and localized radar networks.

• Powering the Artificial Intelligence Boom: Achieving leadership in the AI, robotics, and next-generation supercomputing era is entirely impossible without local, uninterrupted access to advanced computing silicon.
• Fueling the Automotive and Telecom Industries: Local chip assembly secures vital supply lines for India’s massive electric vehicle (EV) manufacturing transition and nationwide 5G/6G commercial rollouts.
• Unlocking High-Skill Industrial Jobs: The transition to commercial chip packaging transforms local human capital, pulling workers from the agrarian hinterlands into high-tech, precision cleanroom engineering roles.
• Mitigating Fragile Import Vulnerabilities: Domestic fabrication stabilizes the wider macroeconomy, preventing sudden foreign factory lockdowns or chokepoint blockades from paralyzing local consumer electronics production.

Key Challenges Associated with the Semiconductor Push:

• Massive Long-Term Capital Demands: Building and operating sub-surface wafer fabs requires continuous capital outlays, far exceeding the initial ₹76,000 crore phase-one budgetary baseline.
• Extreme Vulnerability to Monopolistic Competition: Emerging Indian packaging plants face fierce market competition from firmly established global giants like Taiwan, China, and South Korea, which command deep ecosystem advantages.
• High Reliance on Ultra-Pure Utilities: Operating precision cleanrooms requires an absolutely continuous, uninterrupted supply of millions of gallons of deionized water and highly stable electrical power grids.
• A Shortage of Domestic Raw Materials and Gases: India lacks an internal supply chain for specialized precursor chemical substrates, photomasks, and ultra-pure electronic-grade gases, leaving foundries reliant on imports.
• The Steep Learning Curve for Advanced Fabrication: While packaging and testing (OSAT) are being successfully commercialized, cracking the complex physics of advanced sub-10nm logic node wafer fabrication remains an steep hurdle.

Way Forward:

• Aggressively Funding the India Semiconductor Mission 2.0: Swiftly clear the proposed ₹1.25 lakh crore outlay under ISM 2.0 to broaden public support toward manufacturing equipment, specialized materials, and indigenous intellectual property.
• Securing Dedicated Green Energy and Water Corridors: State governments must establish dedicated sub-stations and circular wastewater recycling networks directly adjacent to semiconductor clusters like Dholera and Sanand.
• Transitioning to Advanced Multi-Vendor IP Design Fabs: Expand the scope of the Design-Linked Incentive (DLI) scheme to support at least 50 local fabless chip design firms, creating a reliable pipeline of indigenous silicon layouts.
• Expanding Specialized International Training Pacts: Formalize extensive workforce training collaborations with advanced nations like Malaysia, Singapore, and Japan to systematically upskill local engineers in high-yield manufacturing.
• Enforcing Made in India Microchip Procurement Quotas: Implement gradual domestic sourcing mandates across public infrastructure bids, electric vehicle incentives, and government defense tenders to create a guaranteed local market.

Conclusion:

By turning ₹7,600 crore in joint venture investments into export-ready hardware, the India Semiconductor Mission has proven it can translate long-term policies into factory-ready output. Moving forward, securing the ₹1.25 lakh crore ISM 2.0 funding and building a reliable domestic raw-materials value chain will remain vital to survive global competition and establish technological sovereignty.