India's Electronics Minister asserts that the country must design and manufacture chips for home appliances
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India's Electronics Minister asserts that the country must design and manufacture chips for home appliances

India's Minister of Electronics and Information Technology, Ashwini Vaishnaw, stated the country's plans to develop the semiconductor industry, noting that India should begin designing and manufacturing microchips for everyday items such as automobiles, televisions, and refrigerators, as well as for critical energy infrastructure in the coming years.

The minister's vision aligns with India's efforts to strengthen its presence in the global semiconductor value chain. The government aims to move beyond mere chip assembly and testing, developing competencies in design, manufacturing, equipment, and materials.

Under the second phase of the semiconductor program, the government has allocated 1.27 lakh crore rupees as funds to expand the domestic ecosystem and attract international investment. Previously, about 1 lakh crore rupees in investor interest was announced under this scheme.

This week saw numerous major announcements, including Applied Materials' plan for India worth $5 billion by 2035, anticipated investments from Lam Research amounting to 10,000 crore rupees, the establishment of the Tata Electronics supplier park spanning 363 acres in Dholera, and the construction of a Fujifilm semiconductor material plant valued at 800 crore rupees.

In an interview with PTI, Vaishnaw emphasized that over the next five years, India must ensure the design and production of chips for automobiles, power supply systems, televisions, and household appliances.

The minister noted that many chips for cars, scooters, and motorcycles are currently produced in the country, and it is necessary for many of these to be designed and manufactured in India. He also stated that similar capabilities should be developed in the energy sector, including chips used in converters, transformers, and power transmission lines.

Regarding consumer electronics, Vaishnaw added that chips used in refrigerators, televisions, and other household appliances should also be designed and manufactured in India. He explained that consumers see the finished product, not the chip itself, which serves as the 'brain' and 'heart' of the television, and this shift would be very beneficial.

As an example of the capabilities India seeks to create, Vaishnaw cited a display control module manufacturing plant that will appear in Uttar Pradesh. This module is responsible for displaying the final image on the television and will be produced domestically.

Furthermore, the minister mentioned the planned LED display manufacturing plant from Crystal Matrix. The company has reduced the complexity level to 40 microns from 90 microns and is establishing a research center in India. Vaishnaw concluded that all these large LED screens will be designed and manufactured in India, and the number of such products will grow in the domestic market.

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India plans to support 200 chip design startups under Semicon 2.0 program
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India plans to support 200 chip design startups under Semicon 2.0 program

Support for microchip design startups in India will receive a significant boost following the Union government's approval of the Semicon 2.0 program, which provides for more than doubling state support for this segment. The Minister of Electronics and Information Technology, Ashwini Vaishnaw, announced this during a fireside chat at the SEMICON India 2026 event on September 18, 2026.

His comments, made as the second phase of India's semiconductor incentives was formulated, place the country's ambitions in the chip domain at the center, encompassing both deep technology developers and SME manufacturing bases, alongside large investments in fabrication plants.

Ashwini Vaishnaw noted that India's pursuit in semiconductors began six years ago under Semicon 1.0. He emphasized that previous attempts, spanning nearly six decades, had repeatedly failed due to inconsistent policies and short-sightedness.

This time, the government has developed a program based on a twenty-year roadmap and a phased approach. This approach started with Assembly, Testing, Marking, and Packaging (ATMP) units and the first fabrication plant for a relatively less complex, high-throughput chip segment—on a node from 28 to 90 nanometers, which, according to the minister, accounts for about 70% of the global chip volume. It is worth noting that Semicon 1.0, planned as a six-year project, was completed in only four years, allowing for the creation of a foundation for its successor.

Semicon 2.0, approved with allocations of ₹1.275 billion, is based on six key areas: design, materials and equipment, additional fabs, expansion of ATMP capacities, research and development, and talent. Vaishnaw pointed out that chip design proved to be the most startup-dense area among these directions.

Under Semicon 1.0, the government eliminated, according to Vaishnaw, the biggest hurdle for young design companies—the high cost of licensing Electronic Design Automation (EDA) tools from suppliers like Cadence, Synopsys, and Siemens. Instead of funding individual licenses, access to these tools was organized jointly through the Centre for Development of Advanced Computing (C-DAC). As a result of this step, over 105 startups became chip designers, with 20 of them attracting venture capital, estimated at around ₹800 billion, according to early government data.

Building on this foundation, Semicon 2.0 aims to support at least 200 companies engaged in deep chip design, which Vaishnaw called a potential turning point for Indian intellectual property.

Beyond chip design, Vaishnaw highlighted the program's positive impact on small and medium Indian manufacturers. Quoting an industry leader he met at the event but not naming the company, he reported that the company had already begun exporting components worth about ₹2,000 billion from India, with almost 90% of this component ecosystem sourced from SMEs.

He added that the precision manufacturing capabilities established around electronics assembly are now being utilized across various sectors, including mobile phone production, aerospace components for companies like Airbus, and defense industries, in addition to semiconductors. One executive Vaishnaw spoke with noted that his company's board of directors informed him there was no actual limit on investment in India, provided execution timelines were met, which he felt indicated investor confidence in the program.

To support this transition, the government is implementing a multi-tiered training system, starting with a Level 1 course lasting 240 hours, designed to prepare a student immediately after high school with skills comparable to a college engineering graduate at subsequent levels. A specialized Institute of Precision Manufacturing is soon planned, followed by similar institutes.

Regarding the total number of specialists, Vaishnaw stated that India has set a goal to train 85,000 semiconductor design engineers over ten years and has already trained about 70,000 in the first four years. He clarified that other recent government statements indicate achieving the full target of 85,000, so the exact current number may vary depending on the date of the last update. Furthermore, he noted that the target of one hundred thousand cleanroom technicians under Semicon 2.0 would likely require an increase given industry demand.

One detail from the conversation helps explain the rapid growth of chip design startups in India. EDA tools are specialized software used for chip layout and modeling before production. Licenses from suppliers such as Cadence and Synopsys can exceed a startup's early-stage annual budget.

Instead of subsidizing individual purchases, the government viewed access to EDA as shared infrastructure through C-DAC, allowing startups to design chips without bearing these costs independently. Vaishnaw suggested that this approach influenced the development of India's chip design ecosystem more than direct grants, as it lowered the barrier to even attempting to design a chip. However, it remains an open question whether this model will hold up when scaled to a cohort nearly double the initial one under Semicon 2.0.

In conclusion, Vaishnaw mentioned that India's first fab, the Tata Electronics-PSMC facility in Dholera, is expected to reach first silicon in 2028. He noted that the spot reserved for this silicon in his office is currently empty, serving as a reminder of how much of the Semicon 2.0 promises still needs to be realized. For chip design startups and SMEs supporting this ecosystem, the upcoming phase will test how well policy based on shared infrastructure and phased training can scale beyond the initial group.

L&T Semiconductor CEO states that India needs hundreds of chip companies to create a global ecosystem
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L&T Semiconductor CEO states that India needs hundreds of chip companies to create a global ecosystem

Sandip Kumar, CEO of L&T Semiconductor Technologies, emphasized that forming a globally competitive semiconductor industry in India will require the creation of hundreds of domestic companies.

Speaking at the Semicon 2026 India conference, Kumar noted that due to the enormous scale of the global semiconductor market, it is impossible for one company to cover all product categories. He specified that there are over 20,000 semiconductor products, and no single company can produce even 2,000 of them, thus requiring the emergence of hundreds of enterprises.

Kumar believes that the appearance of more local chip manufacturers should be viewed as a necessary stage in building an ecosystem, rather than merely as competition. He added that part of L&T Semiconductor's efforts is directed towards fostering the development of a broader semiconductor ecosystem in India.

According to Kumar, India already possesses strong capabilities in digital and computing technologies, as well as analog and mixed-signal design, while its competencies in radio frequency technologies are developed to an acceptable level. However, significant gaps remain in the high-power semiconductors, memory, and optics segments, which he described as 'very weak' in terms of India's design and architecture capabilities.

Kumar also identified system architecture as another major deficiency. Unlike chip architecture, system architecture begins with understanding the needs of customers, markets, and the tasks the product must solve. He stated that 'the first macro gap, as far as I know, is system architecture, not chip architecture.'

Kumar explained that much of this knowledge comes through direct contact with customers and markets, something Indian semiconductor engineers have historically had fewer opportunities for because many large end-users are based outside the country. Furthermore, India lacks experience in transitioning from chip design to manufacturing, semiconductor supply chain management, and direct engagement with fabrication plants.

He noted that competition in the semiconductor industry is increasingly determined by the system-level architecture. Kumar stressed that the current boom in the sector is driven precisely by architecture, distinguishing it from previous periods. As individual chips reach physical production limits, the importance of technologies such as chiplets and advanced packaging increases. Demand is also stimulated by AI workloads, which require faster interconnects, co-packaged optics, and more efficient power delivery.

Kumar focused on the economics of the semiconductor business, where high gross margins necessitate significant reinvestment. He reported that gross margins of 50, 60, or 70% can be achieved in this field, but a substantial portion of these revenues must be directed toward developing next-generation products, as chip manufacturers are forced to constantly innovate amidst the replacement of existing products with new technologies.

L&T Semiconductor Technologies itself is expanding in the areas highlighted by Kumar. This company, which does not own its own fabs, has designed and started shipping over 40 products to 15–20 clients in the last year and a half, covering power modules, communications, power conversion, and computing. The company targets sectors such as energy, industrial applications, mobility, data centers, and AI.

The company is scaling its capabilities through acquisitions and partnerships. L&T Semiconductor acquired power module design assets from Fujitsu General Electronics, including intellectual property, design patents, and packaging expertise. It collaborates with Hon Young Semiconductor on silicon carbide wafer development and with Andes Technology on RISC-V processor platforms. A recent partnership was established with Taiwan's Azuremoto Technologies regarding silicon carbide power devices for AI data centers, as well as MOSFET rectifiers and power products. A multi-year agreement was also signed with Synopsys to strengthen power electronics design and modeling capabilities.

Kumar views India's ambitions in the semiconductor sphere as a long-term project that will take about 20 years. While the ecosystem is beginning to form, the next phase will involve deepening the technological base and creating products capable of competing globally. In Kumar's view, differentiation does not just mean being different, but that the product is superior compared to existing alternatives in global markets.

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