Semicondutor Future
The roadmap proposes building a semiconductor value chain worth $120 billion to $150 billion by 2035.

How India plans to become a global chip powerhouse by 2035

India is aiming for far more than a place in the global semiconductor supply chain. By 2035, the country wants to become an indispensable player in an industry expected to exceed $1.5 trillion globally, according to NITI Aayog’s report Future of India’s Semiconductor Industry.

The report argues that semiconductors have become the foundation of modern economic power, underpinning everything from artificial intelligence and data centres to electric vehicles, telecommunications, defence systems and healthcare. As global technology competition intensifies and supply chains become increasingly fragmented, India’s dependence on imported chips is emerging as a strategic vulnerability. Currently, nearly 90 to 95 per cent of the country’s semiconductor demand is met through imports.

Against this backdrop, the report lays out an ambitious vision for 2035. Rather than attempting to replicate the manufacturing dominance of established semiconductor giants, India should focus on areas where it can create strategic advantages. “India should shift gears and target becoming the ecosystem player that the global semiconductor industry cannot run without,” the report states.

Semiconductors Across Key End Use Sectors

Semiconductors Across Key End Use Sectors

How chips are powering the future economy

🚗 Automotive

What is Changing?
EVs, ADAS, software-defined vehicles
Role of Semiconductors
Chips control power, sensing, compute and autonomy, making silicon the core vehicle architecture.
Key Chips
SiC/GaN power devices, ADAS AI SoCs, sensor ICs, automotive MCUs

📱 Consumer Electronics

What is Changing?
AI-native, immersive devices
Role of Semiconductors
SoCs and edge AI chips define device intelligence, performance and differentiation.
Key Chips
Advanced SoCs, Edge AI NPUs, memory, image and RF chips

📡 Telecom (5G/6G)

What is Changing?
Ultra-low latency, massive connectivity
Role of Semiconductors
RF and baseband chips determine network capacity, energy efficiency and signal quality.
Key Chips
RF Front-End (GaN/SiGe), baseband processors, photonic I/O

🖥️ Computing & Data Centres

What is Changing?
AI-first, hyperscale computing
Role of Semiconductors
Accelerators, chiplets and HBM determine AI scale, cost and energy limits.
Key Chips
AI accelerators, HBM, chiplets, high-speed interconnects

🏭 Industrial Manufacturing

What is Changing?
Industry 4.0 and automation
Role of Semiconductors
Industrial chips form the real-time control and decision layer of smart factories.
Key Chips
Industrial MCUs, edge AI, motor-control and power chips

⚡ Power & Energy

What is Changing?
Electrification, renewables and smart grids
Role of Semiconductors
Power semiconductors govern efficiency, conversion and grid stability.
Key Chips
Wide-bandgap semiconductors (SiC/GaN), grid ICs

🛡️ Defence & Aerospace

What is Changing?
Autonomous, network-centric systems
Role of Semiconductors
Trusted chips underpin sensing, secure communications, guidance and decision superiority.
Key Chips
Radiation-hardened processors, secure SoCs, RF and power chips

🏥 Healthcare

What is Changing?
Digital diagnostics, precision care
Role of Semiconductors
Sensors and processors are the intelligence core of diagnosis and monitoring.
Key Chips
Medical sensors, low-power processors, edge AI biochips

The roadmap proposes building a semiconductor value chain worth $120 billion to $150 billion by 2035. It identifies three key pillars of leadership: becoming a top three global destination for outsourced semiconductor assembly and test (OSAT) and advanced packaging, developing world-class expertise in chip design and system architecture, and establishing dominance in mature-node and compound semiconductors such as Silicon Carbide (SiC) and Gallium Nitride (GaN).

Artificial intelligence is expected to be one of the biggest demand drivers. The report notes that AI accelerators, chiplets, high-bandwidth memory and specialised processors will increasingly define future computing systems and data centres. Meanwhile, sectors such as electric mobility, renewable energy, defence, industrial automation and 5G/6G communications will require a new generation of advanced chips.

India’s ambitions are supported by a strong talent base. The country already accounts for roughly 20 per cent of the global semiconductor design workforce and hosts design centres for many of the world’s leading chip companies.

By 2035, NITI Aayog sees India achieving chip self-sufficiency of 35 to 50 per cent of domestic demand while retaining 55 to 70 per cent of the value generated in the semiconductor supply chain. The larger goal is not merely economic. As the report notes, semiconductors are now a matter of technological sovereignty, national security and long-term strategic resilience. For India, the next decade could determine whether it remains a consumer of technology or emerges as one of its architects.

Comments

No comments yet. Why don’t you start the discussion?

Leave a Reply

Your email address will not be published. Required fields are marked *