Summary
Breaking News: India’s First Commercial-Scale Semiconductor Chip Designed by IIT Students marks a significant milestone in the nation’s pursuit of self-reliance and technological advancement in semiconductor manufacturing. Spearheaded by students from various Indian Institutes of Technology (IITs), this achievement represents the culmination of extensive government support, academic innovation, and industry collaboration aimed at establishing India as a global semiconductor hub. To date, IIT students have designed 20 semiconductor chipsets, with eight reaching the “tape-out” stage—an essential final step before fabrication—signaling readiness for commercial-scale production both domestically and through global foundries.
This breakthrough is set against the backdrop of the Indian government’s ambitious India Semiconductor Mission and related policy initiatives that have mobilized over 270 colleges, numerous startups, and significant funding toward semiconductor design and manufacturing infrastructure. Key academic centers such as IIT Bombay, IIT Hyderabad, and IIT Patna have revamped curricula and fostered industry partnerships, blending research, skill development, and hands-on training to build a robust talent pipeline equipped with advanced semiconductor design and fabrication expertise. These efforts align with broader national goals to reduce dependence on foreign chip imports and create a competitive domestic semiconductor ecosystem.
The production of India’s first commercial-scale chip also underscores ongoing modernization efforts at facilities like the Semiconductor Laboratory (SCL) in Mohali, which is upgrading its fabrication capabilities from legacy 180 nm technology to 28 nm nodes with significant government investment. Despite challenges such as the withdrawal of some private sector partners, the government’s strategic incentives and international collaborations—including a recent US-India partnership under the CHIPS Act—aim to fortify supply chains and attract further investment in semiconductor manufacturing.
Overall, this development highlights India’s emerging capacity in semiconductor innovation and manufacturing, demonstrating the pivotal role of academic institutions and government initiatives in transforming the country into a competitive player in the global semiconductor industry. The initiative has garnered widespread recognition for advancing indigenous technology, fostering skilled talent, and signaling India’s intent to become self-sufficient in a critical sector shaping the future of electronics worldwide.
Background
India’s journey towards becoming a significant player in the global semiconductor industry has seen considerable progress in recent years, driven by governmental initiatives, academic contributions, and industry collaborations. The Indian government launched the India Semiconductor Mission with the vision of establishing the country as a global hub for electronics manufacturing and design, reflecting a strategic focus on advancing semiconductor technologies and related industries.
Several premier Indian Institutes of Technology (IITs) have played a crucial role in this development. Notably, students from various IITs have designed 20 chipsets, with eight already reaching the “tape-out” stage, which signifies the final design phase before fabrication. These designs have been sent to global foundries and the government-run Semiconductor Laboratory (SCL) in Mohali for production, marking a pivotal step towards commercial-scale semiconductor manufacturing in India.
The Indian academic landscape supports this technological growth through dedicated research centers such as the Centre for Semiconductor Technologies at IIT Bombay, which focuses on cutting-edge research and development in semiconductor technology. This center also aids the growth of startups and established enterprises while nurturing top-tier talent to meet the evolving demands of the global semiconductor industry. Similarly, IIT Delhi offers specialized programs like the six-month Executive Programme in Semiconductor Manufacturing & Technology, aimed at equipping working professionals with expertise in semiconductor processes, design, and fabrication.
In addition to academic efforts, collaborations with organizations such as the Defence Research and Development Organisation (DRDO) and the Central Manufacturing Technology Institute (CMTI) provide hands-on training in semiconductor packaging and fabrication, further strengthening India’s semiconductor ecosystem. Despite challenges faced by some industry players, including Foxconn’s withdrawal from a major semiconductor joint venture, the government and other partners remain committed to advancing this sector.
Together, these initiatives illustrate a concerted effort by the Indian government, academia, and industry stakeholders to build a robust semiconductor infrastructure, laying the foundation for the country’s first commercial-scale, made-in-India semiconductor chip production.
Development of the Semiconductor Chip
The development of India’s first commercial-scale semiconductor chip has been driven significantly by students from the Indian Institutes of Technology (IITs), marking a major milestone in the country’s semiconductor industry. To date, IIT students have designed a total of 20 chipsets, with eight of these successfully taped out and sent for fabrication to global foundries and the Semi-Conductor Laboratory in Mohali. This progress reflects both the talent and innovation fostered within Indian academic institutions and the increasing support from government initiatives.
Key to this development is the India Semiconductor Mission, which has played a crucial role by providing advanced electronic design automation (EDA) tools to over 270 colleges and 70 startups. At IIT Hyderabad alone, more than 700 students have collectively used these tools for approximately 300,000 hours over six months, greatly enhancing design capabilities and practical learning experiences. Alongside IIT Hyderabad, other IITs such as IIT Patna and IIT Kanpur contribute through research collaborations and specialized courses that prepare students for semiconductor design and manufacturing challenges.
In response to the expanding semiconductor ecosystem, several IITs have revamped their curricula to emphasize not only chip design but also semiconductor fabrication and packaging. For instance, IIT Hyderabad introduced a BTech specialization in IC Design and Technology in 2022 aimed at producing industry-ready graduates, supported by hands-on training and industry-consulted course content. Similarly, IIT Bhubaneswar, in partnership with MOSart Labs, has launched a professional diploma programme focused on semiconductor technology and chip design, blending academic rigor with industry expertise to equip students with practical skills. Other institutions, including IIT Kanpur and IIT Madras, offer diverse courses related to integrated circuits, device physics, and electronic systems, further strengthening India’s semiconductor talent pipeline.
The government’s push to establish semiconductor manufacturing infrastructure, with six units currently under construction and over 20 companies submitting expressions of interest to set up plants, complements the academic advancements. These efforts are expected to culminate in the production of the first commercial-scale, made-in-India semiconductor chip within the year, signaling a critical leap forward in the country’s ambitions to become a global semiconductor hub.
Technical Details of the Chipsets
Students at various Indian Institutes of Technology (IITs) have designed a total of 20 semiconductor chipsets, with eight of these having been “taped out” and sent for fabrication to global foundries and the Semi-Conductor Laboratory in Mohali. These chipsets represent a significant step toward India’s self-reliance in semiconductor technology, enabled through government support under initiatives such as the India Semiconductor Mission.
The chipsets have been developed using advanced semiconductor design tools provided under these governmental programs, emphasizing indigenous design capabilities. The fabrication process involves state-of-the-art semiconductor manufacturing techniques, where the technology node—referring to the specific manufacturing process and design rules—plays a crucial role in defining the feature size, transistor density, and overall performance of the chips. Generally, smaller technology nodes allow for faster, more power-efficient transistors, which are critical for competitive semiconductor products.
While detailed specifications of the individual chipsets remain proprietary, the integration of diverse components such as transistor arrays and interconnects aligns with contemporary full-node and nodelet process advancements, ensuring optimized performance and scalability. The chipsets are designed to meet industry standards in semiconductor packaging, design, and fabrication, incorporating sophisticated methodologies to control contamination, improve yield, and manage process variability during fabrication.
The curriculum and training at IITs contributing to this achievement include advanced topics such as Digital IC Design, Analog IC Design, CMOS RFIC Design, VLSI Digital Signal Processing, and Memory Circuits, equipping students with comprehensive knowledge to innovate in integrated circuit technology. This educational foundation is complemented by emerging trends in intelligent systems and machine learning-based design methods that influence modern chip architecture.
These efforts culminate in the anticipated launch of the first commercial-scale, made-in-India semiconductor chip within the current year, marking a milestone in the country’s technological capabilities and manufacturing infrastructure.
Fabrication and Production
India’s journey towards commercial-scale semiconductor fabrication is marked by significant advancements in both design and manufacturing capabilities. The government-backed Semiconductor Laboratory (SCL) in Mohali, established in 1976, remains a key player in this ecosystem, operating legacy technology nodes with two fabrication lines supporting 6-inch and 8-inch wafers, alongside ATMP and compound semiconductor units. SCL is currently undergoing a major modernization plan funded with Rs 10,000 crore by the Ministry of Electronics and IT (MeitY), aimed at upgrading its fabrication technology from 180 nanometers to 28 nanometers, thereby enhancing production capacity and technological competitiveness.
To facilitate this upgrade, SCL is actively scouting for land near its existing facilities to establish a new fabrication unit. The lab has also invited bids for the upgrade project, stipulating that qualified bidders must partner commercially to fabricate chips designed by SCL. This initiative is part of a broader strategy to build a comprehensive semiconductor ecosystem in India that spans design, fabrication, equipment, and materials, aligning with the government’s push to produce India’s first commercial-scale semiconductor chip this year.
International collaboration plays a vital role in strengthening India’s semiconductor fabrication and production capabilities. In September 2024, the US State Department announced a partnership with India’s Semiconductor Mission under the ITSI Fund, part of the CHIPS Act of 2022, to explore opportunities for enhancing the global semiconductor supply chain. This collaboration will conduct a comprehensive assessment of India’s semiconductor infrastructure and regulatory framework, engaging multiple stakeholders including state governments and educational institutions.
In parallel, academic institutions such as IIT Patna are actively involved in research that supports semiconductor manufacturing advancements. Their engagement includes collaborations with industry leaders like Applied Materials from India and the United States, focusing on materials critical to semiconductor fabrication and solving high-value industrial problems. This synergy provides students and faculty with hands-on experience and aligns academic output with industrial needs.
Hands-on training and skill development programs organized through collaborations between DRDO, CMTI, and academia further bolster the workforce needed for semiconductor packaging, design, and fabrication industries. These initiatives ensure that both emerging and established professionals are equipped with expertise in contamination control, yield improvement, process variability, and metrology essential for high-performance semiconductor fabrication.
Institutional and Governmental Support
India’s semiconductor ecosystem has witnessed significant institutional and governmental backing aimed at bolstering the country’s capabilities in chip design, manufacturing, and research. Over 20 semiconductor manufacturing and design companies have expressed interest in establishing fabrication plants in India, indicating strong industry confidence in government initiatives and the emerging market potential. The government remains open to expanding incentives beyond the existing Production Linked Incentive (PLI) scheme to attract further investments in the semiconductor sector.
The India Semiconductor Mission (ISM) plays a pivotal role in this landscape, focusing on enhancing India’s competitiveness in semiconductor manufacturing and design. A portion of the Semicon India Programme’s funding—2.5 percent—is allocated specifically for research and development in advanced logic, packaging, compound/power semiconductors, and chip design and electronic design automation (EDA) activities. As part of this initiative, the government has proposed the creation of an independent and nonprofit India Semiconductor Research Center (ISRC) to serve as a world-class hub for semiconductor R&D. Additionally, the Design Linked Incentive Scheme provides financial and infrastructure support for semiconductor design projects, including integrated circuits (ICs), chipsets, system on chips (SoCs), systems, and IP cores, spanning a five-year period. The scheme’s fiscal provisions are appraised by the Expenditure Finance Committee under the Department of Expenditure.
Collaboration between academia and industry has been another key focus area, with premier institutes such as the Indian Institutes of Technology (IITs) playing a crucial role. For example, IIT Bhubaneswar has partnered with MOSart Labs to provide students with industry-relevant skills and expertise, leveraging faculty experienced in the semiconductor sector, including IIT alumni and professors. Similarly, IIT Patna has established research engagements that enable faculty and students to address high-value industrial challenges in semiconductor materials, working alongside scientists from Applied Materials in India and the United States. Further educational initiatives include joint faculty development programs on semiconductor fabrication and packaging technology, reinforcing the skill development ecosystem essential for sustaining growth in the sector.
At an international level, the United States has announced a partnership with India’s Semiconductor Mission under the ITSI Fund, part of the CHIPS Act of 2022. This collaboration involves a comprehensive assessment of India’s semiconductor infrastructure and regulatory framework, incorporating inputs from state governments and educational institutions, aimed at strengthening the global semiconductor supply chain. Through such multi-faceted institutional and governmental support, India is steadily advancing towards becoming a significant player in the global semiconductor industry.
Impact and Significance
The design and impending production of India’s first commercial-scale semiconductor chip mark a pivotal milestone in the country’s technological and industrial advancement, particularly within the semiconductor sector. This achievement underscores the growing capabilities and contributions of Indian Institutes of Technology (IITs), whose students have designed 20 semiconductor chipsets, with eight successfully taped out, demonstrating India’s emerging expertise in chip design.
This progress reflects a broader national effort to establish a complete semiconductor ecosystem—from design to manufacturing—which is critical for positioning India as a global semiconductor hub. The government, led by the India Semiconductor Mission, has been instrumental in fostering this development through significant investments and policy initiatives, such as attracting nearly INR 1.5 trillion (US$18.15 billion) in semiconductor cluster projects that aim to produce around 70 million chips per day. These initiatives are supported by collaborations with international partners, including the United States and Singapore, to strengthen the global semiconductor supply chain and enhance technological capabilities.
Academically, institutions like IIT Bhubaneswar and IIT Patna are playing a vital role by integrating academic rigor with industry expertise and facilitating research engagement that addresses high-value industrial challenges in semiconductor materials and technology. These programs enable students and faculty to collaborate with leading scientists from both India and abroad, equipping a new generation of engineers with industry-relevant skills crucial to the semiconductor ecosystem’s growth.
Regionally, states such as Gujarat and Odisha are leveraging tailored policies and infrastructure development to attract semiconductor investments and establish specialized industrial clusters, further enhancing India’s manufacturing and design capacity. For example, Gujarat’s ‘Semicon City’ initiative and Odisha’s incentives for land and power reflect a strategic focus on building competitive advantages in semiconductor production.
Reception and Recognition
The achievement of designing India’s first commercial-scale semiconductor chip by IIT students has been widely acknowledged across academic, governmental, and industrial sectors. The initiative has garnered significant attention for its contribution to advancing semiconductor research and fostering indigenous technological capabilities. Faculty and students involved in the project have been commended for their collaboration with leading scientists from both India and the United States, highlighting the international dimension of the research engagement.
Government officials, including Shri Amitesh Kumar Sinha, Joint Secretary at the Ministry of Electronics & Information Technology (MeitY), have recognized the strategic importance of such developments in bolstering India’s semiconductor ecosystem, which aligns with broader national goals to promote self-reliance in advanced technology sectors. This project is seen as a critical step towards supporting India’s growing ambitions in semiconductor manufacturing and design, complementing ongoing government efforts such as the Production Linked Incentive (PLI) scheme aimed at attracting high-end semiconductor manufacturing investments.
Industry experts and academic leaders have also praised the initiative for its role in nurturing talent and enhancing practical skills through hands-on training and exposure to cutting-edge technologies, including intelligent systems, machine learning, and AR/VR applications relevant to semiconductor design and fabrication. This recognition reflects a growing consensus on the importance of integrating advanced system design education with real-world industrial challenges to sustain innovation in semiconductor technology.
Future Prospects
India’s semiconductor industry is poised for significant growth, driven by collaborative efforts between academia, industry, and government initiatives. The country is expected to produce its first commercial-scale, made-in-India semiconductor chip within the year, marking a critical milestone in its semiconductor journey. This achievement underscores the vital role played by Indian Institutes of Technology (IITs), whose students have already designed 20 chipsets,
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