The India Semiconductor Mission (ISM) has transitioned from policy drafts to physical factory floors. Five back-end assembly, testing, marking, and packaging (ATMP/OSAT) plants have officially entered commercial production, signaling that India's bid for hardware autonomy is yielding actual silicon chips.
Micron, Kaynes Semicon, CG Semi, CDIL Semiconductor (Mohali), and Suchi Semicon (Surat) are now driving India's initial packaging footprint. This operational push marks a critical transition from greenfield planning to factory-floor execution, even as the country's first commercial wafer fab remains a work in progress.
The Packaging Engine and the Fab Horizon
Back-end packaging is the immediate battleground for the India semiconductor mission. While building front-end fabrication units takes years, OSAT facilities offer a faster route to domestic chip production.
A prime example is Suchi Semicon’s ₹868-crore OSAT facility in Palsana, Surat. Virtually inaugurated on September 17, 2026, the plant features an annual capacity of 1,033.20 million chips. This capacity targets domestic industrial and consumer electronics demand, reducing reliance on East Asian packaging hubs.
In contrast, front-end fabrication remains a long-term play. Tata Electronics’ 300-mm facility in Dholera, Gujarat—slated to be India's first commercial wafer fab—is still under construction. The physical progress of these projects reveals a dual-track strategy: establishing immediate packaging capabilities while building out the foundational infrastructure for complex wafer fabrication. For a deeper look at this geographic split, see our analysis of India's rapid semiconductor OSAT and fab buildout.
Semicon 2.0 and the Toolmaker Influx
To sustain this momentum, the Indian government committed $13.5 billion (₹1.28 lakh crore) to the second phase of the national chip strategy, designated as Semicon 2.0. This updated policy framework expands its focus across six distinct pillars:
- Fabs and Advanced Packaging: Direct subsidies for front-end wafer fabrication and high-density packaging.
- Design and Applied R&D: Funding for domestic chip design startups and academic research.
- Machines and Materials: Incentives for chemical suppliers, gas providers, and equipment manufacturers.
- Talent Development: Engineering curriculum alignment to feed the new facilities.
This structured policy has drawn an estimated ₹1 lakh crore ($11–12 billion) in fresh investment commitments across the ecosystem. Global chipmaking equipment giants are anchoring their supply chains locally to support these new fabs. Applied Materials announced its "India Vision 2035" initiative, committing $5 billion over the next ten years to scale its Indian supply chain. Concurrently, Lam Research committed ₹10,000 crore ($1.05 billion) to establish its first silicon component and vertical ingot processing facility in the country, ensuring that critical tool parts are fabricated locally rather than imported.
Sovereign Silicon and the RISC-V Push
India is also pushing for architectural sovereignty to protect its national security and digital infrastructure. At SEMICON India 2026, domestic entities showcased silicon designed to bypass Western intellectual property dependencies.
L&T Semiconductor Technologies (LTSCT) unveiled 40 products, including its first 1200V Silicon Carbide (SiC) MOSFET platform. This power-efficient architecture targets automotive, industrial, and national security applications. On the high-performance computing front, C-DAC showcased its AUM HPC-AI Processor alongside the RUDRA-AUM compute node, aimed at domestic supercomputing centers. These hardware developments complement India's broader computational goals, which we explore in our coverage of India's sovereign compute initiatives.
The open-source RISC-V instruction set architecture is also gaining ground. The Digital India RISC-V (DIR-V) Grand Challenge awarded its top prize to Meevisai Technologies. The company developed an autonomous water-surface cleaning robot powered entirely by the SHAKTI processor, an open-source RISC-V core designed by IIT Madras.
Global Hardware: TSMC's Advanced Nodes and Micron's HBM Moat
While India builds its foundational ecosystem, global hardware giants are operating at the absolute limits of physics. The gap between trailing-edge packaging and leading-edge fabrication remains vast, driven by massive capital expenditure and advanced lithography.
| Company | Key Metric / Technology | Strategic Status (September 2026) |
|---|---|---|
| TSMC | 2nm node ramp & High NA EUV | August revenue up 53% YoY; gross margins at 67.7% |
| Micron | High Bandwidth Memory (HBM) | $100B in binding, multi-year take-or-pay contracts |
| Intel | Intel 18A Node | Utilizing High NA EUV on select layers |
| Taiwan Ecosystem | Baipu Industrial Park | 88.7-hectare packaging cluster under construction |
TSMC’s aggressive 2nm ramp-up drove its August 2026 revenue up 53% year-over-year. Advanced nodes (7nm and below) now account for 77% of its total wafer revenue, pushing its gross margins to a highly profitable 67.7%. To secure future node leadership, TSMC, Intel, and Samsung are integrating ASML’s High NA EUV lithography systems. Intel is already using this technology on select layers of its 18A process, while TSMC plans high-volume manufacturing with High NA EUV by 2030.
To support these advanced nodes, Taiwan began construction on the 88.7-hectare Baipu Industrial Park in Kaohsiung. This dedicated packaging cluster is designed around TSMC’s advanced packaging needs, with operations targeted for Q4 2029.
Meanwhile, memory markets remain tight. Micron Technology is scheduled to report its fiscal Q4 2026 financial results on September 30, 2026. Wall Street analysts forecast earnings per share (EPS) of $31.52 on revenue of $50.6 billion. This performance is backed by a massive commercial moat: Micron has secured approximately $100 billion in binding, multi-year High Bandwidth Memory (HBM) take-or-pay contracts, alongside 16 strategic customer agreements valued at over $22 billion.
This global concentration of capital and advanced packaging technology underlines the challenge ahead for India. While the country has successfully commercialized five OSAT plants, the road to advanced nodes and global scale requires sustained capital injection, deep toolmaker integration, and decades of engineering refinement.
