A semiconductor is a material that can act as both a conductor and an insulator of electricity. It is widely used in microprocessors found in smartphones, computers, and solar panels. Semiconductors form the foundational component of modern electronics. In today’s digital world, they are essential for the functioning and growth of the digital economy.
India’s semiconductor demand is closely linked to the rapid growth of its electronics market. Currently, India imports nearly 95% of its semiconductor requirements from countries such as China, Taiwan, Hong Kong, and Singapore.
According to the Indian Embassy report, India’s electronics market has witnessed rapid expansion, with demand nearly doubling from $61 billion in FY15 to over $120 billion in FY21. This growth has been driven by increasing internet penetration, rising incomes, urbanization, and higher consumer spending on electronic appliances.
However, domestic production has struggled to keep pace with this demand, resulting in a widening gap that is largely met through imports. India’s electronics market is also not export-driven, with exports remaining relatively small.
| Category (Value in crores) | 2021-22 | 2022-23 | 2023-24 |
| Production | 640810 | 825000 | 952000 |
| Imports | 549713 | 620752 | 727664 |
| Exports | 116895 | 189934 | 241157 |
As India’s electronics market continues to expand, semiconductor demand will rise proportionally. India’s current semiconductor demand is estimated at around $35–40 billion, and this is expected to grow significantly, making chip supply a critical strategic requirement by 2030. According to the Ministry of Electronics and Information Technology, India’s semiconductor market could reach $100–110 billion, highlighting the scale of the opportunity.
| Year | Market Size (USD Billion) |
|---|---|
| 2023 | 38 |
| 2024–25 | 45–50 |
| 2030 (Projected) | 100–110 |
Between 2020 and 2022, the global semiconductor shortage during the pandemic disrupted supply chains worldwide. Chip shortages led to production delays and rising costs, impacting economic activity across industries. This crisis prompted many countries to strengthen their domestic semiconductor manufacturing capabilities.
The crisis also intensified global competition in semiconductors:
India, too, recognized the urgency of reducing its dependence on imports and building a resilient semiconductor ecosystem.
The semiconductor industry relies heavily on high-purity chemicals and gases across the production process. India has a strong foundation in this area. The country’s chemical industry is the sixth largest in the world and contributes around 7% to GDP. Specialty chemicals account for a significant share of exports, providing a strong base for supporting semiconductor manufacturing.
India has also emerged as a global hub for semiconductor design and R&D. According to Press Information Bureau, India hosts about 7% of global semiconductor Global Capability Centres (GCCs) and employs nearly 20% of the world’s semiconductor design workforce. Indian engineers play a key role in developing cutting-edge technologies and globally competitive products.
However, gaps remain. While India has strong capabilities in bulk and specialty chemicals, the production of ultra-high purity materials required for advanced semiconductor manufacturing is still limited. Similarly, fabrication infrastructure remains underdeveloped, highlighting a clear divide between India’s strengths in design and its weaknesses in manufacturing.
A semiconductor chip is not made in one simple factory step. It is built through an ultra-precise chain of materials, chemicals, machines, cleanrooms, power, water, and testing. That is why chip manufacturing is far more complex than ordinary electronics assembly.
Think of a chip like a tiny city of circuits built layer by layer on a silicon disc. Each stage below needs specialized inputs. If even one link is weak, the whole process breaks.
It starts with silicon, often derived from sand. But chip-grade silicon must be purified to an extremely high level and turned into a near-perfect crystal.
The crystal is sliced into very thin, mirror-smooth discs called wafers. These wafers become the base on which chip circuits are built.
Using lithography machines, manufacturers project tiny circuit patterns onto the wafer. This is like printing a map so small that errors are unacceptable.
Special gases and chemicals add thin material layers, while other steps remove selected parts. This sequence is repeated again and again to build the chip.
The process happens inside highly controlled cleanrooms. Even a tiny dust particle, vibration, or power fluctuation can damage the wafer.
Once the wafer is ready, chips are cut, tested, and packaged so they can be used in phones, laptops, EVs, servers, and industrial electronics.
The most critical step is lithography – the stage where tiny circuit patterns are printed on the wafer. These machines are among the most advanced industrial tools in the world. They are expensive, hard to access, and depend on a global network of suppliers.
In simple terms: if you cannot reliably access the right machines, materials, and precision environment, you cannot manufacture advanced semiconductors at scale.
Semiconductor manufacturing is not just about building one factory. It is about building an entire ecosystem where materials, machines, utilities, skills, and logistics all work together without failure.
India has strong talent in chip design and a growing electronics market. But manufacturing chips locally is hard because fabs need far more than demand – they need deep industrial capability, precision supply chains, and long-term capital.
A semiconductor fab can cost billions of dollars before it even starts producing at scale. The risk is high, the payback is slow, and technology cycles move fast.
The most sophisticated chip-making equipment comes from a very small number of global players. Access is difficult, expensive, and strategically sensitive.
India has a strong chemicals base, but semiconductor manufacturing needs exceptionally high purity gases, chemicals, and specialty materials with near-zero defects.
Fabs need stable electricity, very high-quality water, precision air control, and reliable logistics. Even a small disruption can halt production or damage output.
India is strong in design talent, but large-scale fab operations also need process engineers, equipment specialists, materials experts, and cleanroom technicians.
Semiconductor success comes from clusters – suppliers, testing, logistics, training, and customers all around the fab. Building that ecosystem takes years, not months.
India is not lagging because semiconductors are simply “hard.” It is lagging because semiconductor manufacturing demands a tightly coordinated ecosystem of ultra-pure materials, advanced equipment, perfect infrastructure, highly specialized skills, and very large long-term investments. That is why India is moving first through design, assembly, testing, and packaging while fabrication develops more gradually.
India participates in the semiconductor value chain through design and packaging, but large-scale commercial chip manufacturing remains limited.
Recognizing the strategic importance of semiconductors, the government has launched an ambitious policy framework to promote domestic manufacturing.
Under the semiconductor mission, India has committed ₹76,000 crore in incentives, offering up to 50% fiscal support for semiconductor and display manufacturing projects. These incentives aim to attract both global and domestic players and reduce import dependence.
The policy covers multiple segments:
This marks a shift from passive participation in the value chain to active ecosystem development.
The startup ecosystem is also gaining momentum. For instance, Netrasemi, supported under the chip design scheme, has received ₹107 crore in venture capital funding and focuses on chips for IoT applications. As of January 2026, the Design Linked Incentive (DLI) scheme supports 24 semiconductor design startups.
India has also launched its first homegrown 1.0 GHz microprocessor, DHRUV64, signalling progress in indigenous innovation.
India’s semiconductor ambitions are increasingly anchored in emerging industrial hubs such as Dholera and Sanand in Gujarat.
Dholera Special Investment Region is being developed as a greenfield smart industrial city with plug-and-play infrastructure, including reliable power, water supply, and proximity to ports key requirements for semiconductor fabrication units.
Sanand, on the other hand, has already established itself as a manufacturing hub, attracting large-scale electronics and semiconductor investments due to its strong connectivity and industrial ecosystem.
Apart from Gujarat, states such as Andhra Pradesh, Uttar Pradesh, Assam, and Odisha are also expected to contribute to India’s semiconductor journey. Together, these hubs reflect India’s strategy of building infrastructure-ready zones to support capital-intensive semiconductor manufacturing.
Looking ahead to 2030, India’s semiconductor ecosystem is likely to evolve gradually through a phased approach driven by demand, policy support, and investments.
India is expected to strengthen its position in:
These segments require relatively lower capital investment and align with India’s existing strengths in talent and services.
Semiconductor manufacturing is likely to progress slowly, with initial fabs focusing on mature nodes rather than cutting-edge chips. Sustained policy support and global partnerships will be key to scaling this segment.
Several challenges remain:
India’s semiconductor journey should be seen as a long-term, phased strategy rather than a race for immediate global dominance. The country is leveraging its strengths in design while gradually building manufacturing and supply chain capabilities.
By 2030, India is unlikely to rival global leaders in advanced semiconductor manufacturing. However, it has the potential to emerge as a key player in semiconductor design and packaging, reducing import dependence and strengthening its position in the global electronics value chain.
The real transformation lies in building strategic capability aligning strengths with policy support and sustained investment. This must be complemented by a strong focus on talent development, including specialized semiconductor training and curriculum integration in universities, to bridge the skills gap and support long-term industry growth.
India’s semiconductor dream is not just about chips.It is about economic resilience, technological sovereignty, and future readiness.
India’s semiconductor push opens opportunities across the value chain, not just in chip manufacturing.
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