Stay updated on India's semiconductor industry journey, including investments, policies, and manufacturing progress. Get the latest news, expert insights, and curated links on India's growing role in the global chip supply chain!
AND NOW: Technical Topics....
(ONLY PROJECTS WHICH HAVE RECEIVED FINAL APPROVAL FROM THE CENTRAL GOVERNMENT HAVE BEEN LISTED AND DISCUSSED BELOW.)
News Flash: Summary of BUDGET 2026 now available! See below....
The Telegraph India 6th Jun 2025
Observer Research Foundation 4th Apr 2025
First India fab, announced 29th Feb 2024: Tata Electronics and PSMC, Taiwan
Operational by end of 2026
Will be capable of 28-, 40-, 55-, and 110-nanometer chip production, with a capacity of 50,000 wafers per month. This will be in Dholera, Gujarat. Investment in this fab will be about $ 11 Billion.
Far from the cutting edge, these technology nodes nevertheless are used in the bulk of chipmaking, with 28 nm being the most advanced node using planar CMOS transistors instead of the more advanced FinFET devices.
Segments covered include high performance compute chips with 28 nm technology, power management chips.
Second India fab, announced 12th Aug 2025: SiCSem Pvt Ltd
Operational by ???
India’s first commercial compound semiconductor fab. The silicon carbide semiconductor plant will be set up in Bhubaneswar, Odisha, with an investment of Rs 2,066 crore ($ 235 Million). It will have the capacity of 60,000 wafers/year and 96 million packaged units annually. Applications include defence systems, EVs, railways, fast chargers, solar inverters, etc.
Micron’s DRAM and NAND assembly and test facility.
Operational by end of 2025
Will be coming up in Sanand, Gujarat. Investment of about $2.75 billion over two phases. They will focus on transforming wafers into ball-grid array (BGA) integrated circuit packages, memory modules, and solid-state drives. The new 1.4 million-square-foot facility will have 500,000 square feet of clean room space, and this facility will be operational by the end of 2024. Micron will ramp up capacity gradually over time in line with global demand trends. Phase two of the project will be initiated in the second half of the decade.
January 2025 Update: 60% work completed. https://www.business-standard.com/industry/news/micron-semiconductor-facility-india-jobs-2025-125012801142_1.html
Expected to be handed over to Micron between September-December 2025.
Semiconductor ATMP unit in Assam
Operational by early 2026
Tata Semiconductor Assembly and Test Pvt Ltd ("TSAT") will set up a semiconductor unit in Morigaon, Assam. This unit will be set up with an investment of $ 3.2 Billion. TSAT semiconductor is developing indigenous advanced semiconductor packaging technologies including flip chip and ISIP (integrated system in package) technologies. Capacity is 48 million per day.
Semiconductor ATMP unit for specialized chips
Operational by 2027
CG Power, in partnership with Renesas Electronics Corporation, Japan and Stars Microelectronics, Thailand will set up a semiconductor unit in Sanand, Gujarat. This unit will be set up with an investment of about $ 1 Billion. The unit will manufacture chips for consumer, industrial, automotive and power applications and will have a capacity of 15 million per day.
Semiconductor ATMP unit for specialized chips
Operational by ??
HCL and Foxconn, will set up a semiconductor unit in Jewar, U.P.. This unit will be set up with an investment of about $ 434 Million. The unit will manufacture WLP display driver chips and will have a capacity of 20,000 wafers per month, 36 million chips per month.
Semiconductor ATMP unit for specialized chips
Operational by 2027
Kaynes Semicon, will set up a semiconductor unit in Sanand, Gujarat. Their initial plans for a unit in Tamil Nadu were scuppered by ISM. This unit will be set up with an investment of about $ 413 Million. The unit will manufacture chips for the domestic (30%) as well as the international market (70%) and will have a capacity of 6 million per day. They plan to have about 13 chip assembly and test lines.
Semiconductor ATMP/OSAT unit for specialized chips
Operational by ?
3D Glass Solutions Inc. will set up a facility for advanced packaging and embedded glass substrate technology (e.g., glass interposers, silicon bridges, 3D heterogeneous integration) in Bhubaneswar, Odisha. It will have the capacity of about ~69,600 glass substrates, 50 million assembled units, and 13,200 3DHI modules annually. Applications include AI, HPC, automotive, photonics, RF, defence, co-packaged optics.
Semiconductor ATMP/OSAT unit for specialized chips
Operational by ?
Advanced System in Package (ASIP) Technologies, in partnership with South Korea's APACT Co. Ltd., will be setting up a facility for packaging and assembly in Andhra Pradesh. The capacity will be 96 million packaged units/year and the applications include Mobile phones, set-top boxes, automotive electronics, and other consumer electronic products.
Semiconductor ATMP/OSAT unit for specialized chips
Operational by ?
Continental Device India Ltd (CDIL) is expanding an existing facility to manufacture high-power discrete devices (MOSFETs, IGBTs, Schottky diodes, transistors) in both Silicon and Silicon Carbide to a capacity of ~158.38 million units/year. Applications include EVs, charging infrastructure, renewable energy, industrial systems, telecom, power conversion. While primarily back-end / discrete semiconductor production — it also involves some front-end fabrication.
INTEL: Has one of its largest design centers in Bengaluru.
AMD: Has large R&D and engineering facilities in Bengaluru and Hyderabad.
Qualcomm: Multiple large design centers, Bengaluru, Hyderabad and Chennai.
NVIDIA: Major R&D center in Bengaluru and Pune, focused on GPUs, AI and networking.
Synopsys & Cadence: Significant R&D and support centers in NOIDA, Bengaluru, Hyderabad.
Micron: Strong design team in Hyderabad working on memory and SSD controllers.
HCL Technologies (including Sankalp Semiconductor): Focuses on semiconductor design services, ASIC, SoC, and system-level design, serving industries like automotive, IoT, and telecommunications
MediaTek, Broadcom, Marvell, IBM, Samsung: Have substantial design and R&D presence.
Saankhya Labs: Designs satellite communication and broadcast chipsets.
Signalchip: Developed India's first indigenously designed 4G/LTE and 5G NR modems.
InCore Semiconductors: Develops RISC-V based CPU cores and platform solutions.
Tech Mahindra: Provides semiconductor design and verification services, along with embedded solutions for IoT and automotive sectors.
TCS (Tata Consultancy Services): Offers chip design and validation services, emphasizing AI and data-driven solutions
L&T Semiconductor Technologies: Provides comprehensive semiconductor engineering services, focusing on design, verification, and embedded systems.
TATA Electronics has been confirmed to be the first Indian player in wafer fabrication in collaboration of PSMC of Taiwan.
SiCSem Private Limited, in collaboration with UK-based Clas-SiC Wafer Fab Ltd., will be setting up a compound semiconductor fabrication facility focused on Silicon Carbide devices.
SITAR (BEL): A government-owned unit runs a small-scale fab for strategic and defense applications (not commercial).
There have been other proposals floating around but are yet to be confirmed.
Pre-silicon validation is a critical step in the semiconductor design lifecycle, involving the simulation and verification of a chip design before it is manufactured. This process ensures that the design meets its functional and performance specifications, reducing errors and costly rework in later stages. In India, several companies are active in pre-silicon validation, leveraging advanced tools and expertise:
As in Design & Engg category: Same MNCs (Intel, AMD, Qualcomm, NVIDIA) and EDA giants (Synopsys, Cadence) have major teams in India doing this work.
HCL Technologies: Provides comprehensive pre-silicon validation services, including functional verification, emulation, and performance modeling. Expertise in ASIC and SoC designs, supporting industries like automotive, telecommunications, and IoT.
Infosys: Provides expertise in IC design and validation, including hardware-software co-design and verification. This ensures efficient design and functional reliability before manufacturing begins.
TCS (Tata Consultancy Services): Engaged in pre-silicon validation, focusing on functional and formal verification for complex ICs. Offers validation solutions for AI, automotive, and networking applications
Tech Mahindra: Specializes in semiconductor pre-silicon verification, including simulation, regression testing, and design-for-testability (DFT). Partners with global semiconductor firms for verification projects
L&T Semiconductor Technologies: Provides services in design verification, including pre-silicon validation for VLSI designs. Expertise in testbench development, simulation, and hardware emulation
MosChip Technologies: Focuses on pre-silicon validation, offering verification IPs, functional modeling, and simulation frameworks. Serves clients in industries such as IoT, automotive, and telecommunications
Wipro: Offers end-to-end semiconductor solutions, including pre-silicon validation for ASIC and FPGA designs. Specializes in verification methodologies like UVM (Universal Verification Methodology)
Tessolve: Engaged in pre-silicon validation, emphasizing system-level verification and functional testing. Expertise in integrating pre-silicon and post-silicon validation for faster time-to-market
The bulk of the new investments in the industry in India focus on this field. (It is, however, to be noted that many processes, such as wafer-level micro bumping, still have no players in India.)
Micron Technology: Setting up an assembly and test facility for DRAM and NAND in Gujarat
Tata Electronics (TEPL): Building an advanced ATMP plant in Assam with a focus on modern packaging technologies like flip-chip.
CG Power, Renesas, and Stars Microelectronics: Collaborating on an OSAT facility in Gujarat for legacy and advanced packaging.
HCL, CDIL, ASIP, and Kaynes: Each is building an OSAT facility in India.
EXISTING PLAYERS:
Tessolve: Specializes in ATMP services, IC testing, and engineering solutions for semiconductor products
Foxconn: Invested in semiconductor manufacturing in India, with plans to expand assembly and packaging capabilities.
Pegatron: Active in the electronics assembly space and reportedly exploring semiconductor testing opportunities
Multiple small players.
Foxconn
Pegatron
Here’s a comprehensive summary of all the key semiconductor-related announcements from India’s Union Budget 2026-27 (presented on 1 Feb 2026 by Finance Minister Nirmala Sitharaman) that impact semiconductors, electronics manufacturing, supply chains, and the broader chip ecosystem. We will talk about what Budget 2026 + ISM 2.0 actually implies for each layer of the Indian semiconductor ecosystem, and will flag who really benefits vs who just gets signaling:
1. Chip Design / Fabless / IP Companies
(Indian startups, MNC captive design centres, EDA ecosystem)
What the budget does
ISM 2.0 explicitly expands beyond fabs to full-stack capability, with design and IP as a core pillar.
Continuation + expansion of Design-Linked Incentive (DLI) under ISM 2.0 (now implicitly part of the mission rather than a standalone scheme).
Alignment with AI, automotive, telecom, defence and data-centre demand, which indirectly anchors domestic chip design demand.
What this actually means
Stronger support for:
Fabless ASIC/SoC startups
Automotive MCUs, power, sensors, RF, AI accelerators
System-aware chip design (India’s real strength)
Increased likelihood of co-development models:
Indian design + foreign fab + local OSAT
Who benefits most
Mid-stage Indian fabless firms (not idea-stage startups)
Global companies expanding India design ownership, not just headcount
EDA, verification, silicon lifecycle software vendors
Key limitation
No direct domestic fab guarantee for advanced nodes — design remains globally fab-dependent.
2. Wafer Fabs (Logic, Memory, Analog, Compound):
(Greenfield fabs, JV fabs, specialty fabs)
What the budget does
No new “headline fab subsidy number”, but:
ISM 2.0 keeps fab support alive
Signals continuity rather than reset
Emphasis subtly shifts from “any fab” → strategic + viable fabs
What this actually means
Support remains strongest for:
Mature nodes (28nm and above)
Analog / power / compound semiconductors
Sensors, discretes, automotive-grade silicon
Advanced logic fabs remain politically supported but economically cautious
Who benefits most
Compound semiconductor fabs (SiC, GaN)
Power and analog fabs aligned with EV, renewables, industrial
Consortia with clear anchor customers
Key limitation
India still lacks:
Local equipment ecosystem maturity
Deep chemical & gas redundancy
Budget signals patience, not acceleration.
3. OSAT / ATMP / Advanced Packaging:
(Assembly, test, packaging — India’s near-term sweet spot)
What the budget does
ISM 2.0 implicitly elevates packaging as strategic
ECMS ₹40,000 crore outlay strongly supports:
Substrates
Lead frames
Interposers
Advanced PCBs
What this actually means
Best-positioned sector in India today
Strong case for:
Advanced packaging (SiP, 2.5D, chiplets)
Automotive & industrial test operations
Packaging becomes the bridge between Indian design and global fabs
Who benefits most
OSATs with:
Automotive / power / RF focus
Mid-volume, high-mix profiles
Robotics, automation, and test-equipment vendors
Key limitation
Still dependent on imported wafers
Talent gap in advanced packaging process engineering
4. Semiconductor Equipment:
(Process tools, metrology, robotics, handling, automation)
What the budget does
First time equipment is explicitly mentioned as a domestic target
ISM 2.0 aims to:
Encourage local manufacturing of semiconductor equipment
Support subsystem-level localization
What this actually means
India is not trying to build an ASML, instead:
Wafer handling
Vacuum robotics
FOUPs
Load ports
Back-end tools
Test automation
Strong alignment with:
OSATs
Specialty fabs
Pilot lines
Who benefits most
Foreign equipment firms setting up:
Local manufacturing
JV production
India-specific variants
Indian firms in:
Precision motion
Robotics
Industrial automation
Vacuum systems
Key limitation
Front-end lithography, etch, deposition remain out of reach (for now)
5. Materials, Chemicals, Gases:
(Wafers, photoresists, CMP, specialty gases, substrates)
What the budget does
Explicit recognition that materials are a strategic weakness
Links semiconductor push with:
Rare-earth corridors
Chemical manufacturing
High-purity materials
What this actually means
Incentives favour:
Back-end materials first
Specialty chemicals before front-end purity extremes
Gradual domesticization strategy
Who benefits most
Specialty chemical companies willing to:
Segregate semiconductor-grade production
Partner with fabs/OSATs early
Substrate and advanced PCB makers
Key limitation
Front-end purity levels (7N, 9N) will still be import-heavy for years
6. Electronics Manufacturing (Downstream Demand):
(EMS, automotive, telecom, consumer, industrial)
What the budget does
ECMS ₹40,000 crore is demand-side fuel
Strengthens:
Domestic electronics volumes
Export-oriented manufacturing
What this actually means
Semiconductor demand is:
More predictable
Less policy-fragile
Especially strong for:
Automotive electronics
Power management
Sensors
Connectivity chips
Who benefits most
Chipmakers aligned with Indian OEMs
EMS players pushing localisation beyond final assembly
7. Talent, R&D, Academia - Industry:
(The quiet but critical layer)
What the budget does
ISM 2.0 emphasises:
Industry-led research centres
Training tied to manufacturing, not just VLSI theory
What this actually means
Shift from:
“VLSI course factories”
→ process, test, packaging, yield engineering
Better alignment with real fabs & OSATs
Key limitation
Talent ramp is still 5–10 years, not immediate
Executive Summary
Budget 2026 signals that India is no longer chasing headlines — it’s building survivability.
Not a “mega-fab announcement” budget
A supply-chain hardening budget
Strongest for OSAT, packaging, equipment, materials, design
Advanced logic fabs remain aspirational, not abandoned
Let's take a quick overview of the efforts of 2025......
1. Market Expansion & Demand:
India’s semiconductor market has continued to grow, estimated around US $45 - 50 billion in 2024-25, up from about $38 billion in 2023. Projections indicate this could expand to $100 - 110 billion by 2030 with sustained policy and investment support.
2. Major Projects & Investments:
In 2025 the government and private sector continued to green-light major initiatives:
The HCL-Foxconn JV fab near Jewar, UP, was approved with significant capacity for display driver chips >> a strategic intermediate step toward full chip production.
Multiple projects under the India Semiconductor Mission (ISM) and the PLI scheme helped attract strong investment commitments and created manufacturing momentum.
3. Policy and Strategy Advances:
The government launched India Semiconductor Mission 2.0 (ISM 2.0) under the Union Budget 2026, with allocations aimed at broadening indigenous capabilities around equipment, materials, and IP development, not just chip assembly.
Gujarat’s semiconductor ecosystem around Dholera saw heightened focus and investment under ISM 2.0, anchoring India’s semiconductor footprint.
Milestones & Ecosystem Indicators in 2025
✔ Advanced Capability Development
India signaled intentions to move beyond early nodes: government officials officially stated ambitions to progress toward 5–7 nm class semiconductors, illustrating a bolder R&D roadmap beyond basic ATMP (Assembly, Testing, Marking & Packaging) activities.
✔ Domestic & Global Collaboration
Strategic partnerships with semiconductor hubs like Taiwan, Japan, and the U.S. strengthened technology exchange, supply chain linkages, and talent development.
✔ Educational & Workforce Development
India’s massive EDA (Electronic Design Automation) training initiative logged over 10 million student hours in 2025, demonstrating serious efforts to build design talent foundational to semiconductor growth.
What Is Still Behind Expectations (Challenges)
Despite strong momentum, some areas lag original ambitions:
Full commercial chip production at scale — while government and industry leaders had signaled that chip manufacturing would start in 2025, large-scale fabs producing advanced nodes did not yet reach volume production this year.
Supply chain readiness — critical segments like semiconductor equipment, advanced materials, and gases remain under-developed domestically. This means continued reliance on global suppliers for advanced manufacturing inputs.
Outlook: Near to Midterm (2026–2030)
> Next 12 - 24 months
Commercial chip production is expected to scale up, particularly from ATMP units and initial fabs (e.g., HCL-Foxconn, Tata/PSMC).
ISM 2.0 will accelerate efforts to build equipment and materials capabilities — a major structural upgrade for India’s semiconductor ecosystem.
Continued international partnerships and event platforms (SEMICON India, IESA Vision Summit, embedded tech expos) will strengthen ecosystem connectivity and investment flows.
> 3 - 5 years
The Indian semiconductor market could double again toward $100+ billion by 2030 if policy momentum persists and manufacturing ramps effectively.
India is likely to shift from being a primarily design and assembly center toward high-volume advanced packaging and mid-node fab production.
> Longer term (beyond 2030)
If India successfully localizes equipment, materials, and IP creation, it could emerge as a significant alternative chip hub complementing Taiwan, Korea, and the U.S.
Full competitiveness in the most advanced logic nodes (e.g., <10 nm) remains a long-term goal that will stretch into the next decade.
Summary
2025 has been a year of consolidation and transition for India’s semiconductor ambitions: policy frameworks matured, investments were scaled up, ecosystem building deepened, and India moved closer to commercial chip production. While the country did not yet become a global manufacturing powerhouse this year, clear structural progress (particularly with ISM 2.0, workforce training, and strategic partnerships) sets up a stronger trajectory for the next 3–5 years.
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