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1Repair Windows errors before they cause bigger problems2Fix the driver behind crashes, sound loss and screen glitches3Clear out junk files and repair common Windows errorsIndia is building more than a chip-design industry: its plan covers semiconductor design, wafer fabrication, chip packaging and testing, equipment and materials, research, and workforce training. The effort has moved from the ₹76,000 crore Semicon India programme to Semicon 2.0, announced in July 2026 with a ₹1,27,500 crore budget. Several approved projects have advanced to production, but an approved project is not the same as an operating wafer fab—and India still needs deeper manufacturing skills, suppliers, and reliable infrastructure to turn investment into competitive output.
What India means by a semiconductor ecosystem
A semiconductor ecosystem includes the stages and supporting capabilities needed to design, make, test, and supply chips. India’s programmes address several of them at once:
- Design: Chip companies create designs such as application-specific integrated circuits (ASICs), systems-on-chip (SoCs), field-programmable gate arrays (FPGAs), and reusable intellectual property (IP) cores.
- Fabrication: A semiconductor fab processes silicon wafers to form integrated circuits. This is distinct from assembling and packaging chips made on wafers.
- Packaging and testing: ATMP (assembly, testing, marking and packaging) and OSAT (outsourced semiconductor assembly and test) facilities turn processed dies into packaged components and test them.
- Enablers: Equipment, materials, research, trained workers, and close links between companies and universities support the other stages.
Semicon India, also referred to as ISM 1.0, was designed to support parts of this value chain. Semicon 2.0, announced by the Prime Minister’s Office in July 2026, groups its approach into six pillars: design; machines and materials; more fabs; stronger ATMP/OSAT; research and development; and talent development.
How the two programme frameworks differ
| Framework | What it covers | Stated financial support |
|---|---|---|
| Semicon India (ISM 1.0) | Silicon CMOS and display fabs; compound semiconductors, silicon photonics, sensors and discrete devices; ATMP/OSAT; and design incentives | Government describes a ₹76,000 crore programme. It offers up to 50% of project cost for silicon CMOS and display fabs, up to 50% of capital expenditure for specified compound-semiconductor, device and packaging projects, plus design-linked incentives. |
| Semicon 2.0, announced July 2026 | Six pillars spanning design, machines and materials, fabs, ATMP/OSAT, R&D and talent | Announced budget: ₹1,27,500 crore. |
The support rates describe programme terms, not a guarantee that every applicant receives the maximum or that a project will be completed. The July 2026 announcement also lists a separate ₹8,000 crore outlay for implementation in 2026–27.
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Is India building fabs, or only doing chip design?
It is pursuing both wafer fabrication and packaging, alongside design. However, the project mix matters: an OSAT or ATMP plant is a manufacturing facility, but it does not perform the same wafer-fabrication process as a silicon fab.
Major facilities announced in March 2024
| Company and location | Facility type | Announced investment |
|---|---|---|
| Tata Electronics, Dholera, Gujarat | Silicon fab | Above ₹91,000 crore |
| Tata Electronics, Assam | OSAT facility | About ₹27,000 crore |
| CG Power, Sanand, Gujarat | OSAT facility | About ₹7,500 crore |
These are the investment figures in the March 2024 project announcement; an announced investment is not itself evidence that a facility is operating.
What is operating, approved, or still planned?
The latest status in the cited government announcements is mixed. In July 2026, the Prime Minister’s Office reported 12 approved manufacturing units with cumulative investment above ₹1.64 lakh crore. It said Micron, Kaynes and CG Semi had started commercial production, and that another unit was expected to start during 2026.
That status should not be read as meaning that all 12 units are producing chips, or that a silicon wafer fab is already operating. Commercial production at a packaging or other manufacturing unit does not establish that a wafer fab has begun production. The July 2026 announcement does not give a guaranteed commissioning date for every approved project or specify, in this summary, which production milestone applies to each company.
The government’s 2026–27 implementation targets also distinguish intended activity from results. They list ₹4,000 crore in fab investment and 1,500 jobs; ₹11,000 crore in compound-semiconductor and ATMP/OSAT investment and 3,000 jobs; and 200 semiconductor-design jobs. These are programme targets for that fiscal year, not achieved investment or employment totals.
What technology can India make?
The July 2026 Semicon 2.0 announcement describes India’s current journey as starting around 28–110 nanometres, while seeking to move toward more advanced nodes. This is a broad description of the programme’s technology direction, not a claim that every approved facility uses the same process or that India has already achieved leading-edge manufacturing parity.
Node size is only one way to describe a chip process. A country’s manufacturing capability also depends on the types and volumes of chips its fabs can produce, the reliability of yields, access to process knowledge and equipment, and the ability to supply customers consistently. The available announcement does not provide a project-by-project node specification, so a single capability claim should not be applied to all Indian facilities.
Does India have enough semiconductor engineers?
India has a large engineering base and a growing training effort, but the number of engineering graduates alone does not show how many people can step into specialised semiconductor roles. A 2025 workforce strategy from the National Council for Vocational Education and Training (NCVET) says India produces over 1.5 million engineers annually, while less than 3% are considered semiconductor-ready. It identifies shortages in fab operators, process technicians, and ATMP engineers.
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How the training effort is structured
- University curricula: The All India Council for Technical Education (AICTE) introduced B.Tech, diploma, and minor-degree curricula in VLSI design and IC manufacturing.
- Chips to Startup: The Press Information Bureau (PIB) reported in 2024 that the programme was being implemented across 113 academic institutions, R&D organisations, startups, and micro, small and medium enterprises. Its stated goal is to train 85,000 engineers and develop ASICs, SoCs, FPGA designs, and IP cores. The figure is a target, not a count of people already trained.
- EDA access: The Prime Minister’s Office reported in 2026 that 315 universities were training students on current electronic design automation (EDA) tools and that about 68,000 students had been trained. This is a reported student-training figure; it does not mean all those students are ready for fab-floor or process-engineering roles.
- Industry and research partnerships: An ISM–IISc–Lam Research memorandum of understanding aims to train about 60,000 Indian engineers over 10 years through the Semiverse platform. ISM also cites collaborations with IBM and Purdue University.
Design-tool training and manufacturing readiness are related, but not interchangeable. The NCVET workforce strategy calls for tighter links between academic programmes and actual fab and ATMP job roles, with particular attention to advanced-manufacturing skills and IP creation.
Independent reader supportYour contribution helps us test, update, and keep practical guides available for everyone.Why India is pursuing chip manufacturing
Semiconductors are used across consumer electronics, communications, vehicles, industrial systems, and other products. Building domestic design and manufacturing capacity can broaden the supply base and develop technical capabilities at home. The policy spans the chain rather than treating chip design alone as equivalent to manufacturing independence.
A PIB note published in 2026 cites industry estimates of a $38 billion Indian semiconductor market in 2023, $45–50 billion in 2024–2025, and $100–110 billion by 2030. These are industry estimates reported by PIB, not audited government measurements. The same note says 10 projects worth ₹1.60 lakh crore had been approved across six states by December 2025 and describes an ambition to cover 70–75% of domestic applications by 2029. That ambition is a policy goal, not a verified share already supplied by Indian production.
What will determine whether the plan succeeds?
Funding and project approvals create an opportunity, but sustained output depends on operating capability. The government’s workforce strategy and policy priorities point to several practical tests:
- Project execution: Whether approved facilities are built, commissioned, and able to sustain production, rather than remaining at the approval or construction stage.
- Utilities and site readiness: Reliable power and semiconductor-grade water, as well as clean rooms and the supporting infrastructure needed for manufacturing.
- Process expertise: Access to process know-how and experienced fab operators, technicians, and engineers who can maintain stable operations.
- Supplier depth: Availability of equipment, materials, maintenance, and other suppliers close enough to support production and respond to problems.
- Research and workforce alignment: Sustained R&D and training tied to the specific design, fab, and packaging roles employers need.
Any comparison with Taiwan, South Korea, China, the United States, or another emerging hub should use consistent measures: technology node, fab versus OSAT versus design mix, project stage, public support per project, supplier and materials depth, power and water reliability, workforce readiness, domestic demand, export access, and industry–university R&D links. A tally of announced investments alone cannot show whether two ecosystems have comparable capabilities.
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