Indian semiconductor ecosystem: News, Updates & Discussions.

 
It is not either legacy nodes or advanced nodes. We need all the semicon plants we can get.
But there is implicit ban on advanced nodes plant in India (<14nm), which we should be having one way or another to be truly self reliant.
See the reason given by TSMC to India, Qatar etc, when asked to setup advanced node:


See the semicon industry is very large with very niche players from Japan, Germany etc whom whole industry depends for these advanced nodes and TSMC is just a integrator of all these inputs(not discounting them for running a fab, they did good). Even the ASML of Dutch depends on very specific inputs from US and Germany, that is why when US banned ASML from exporting their EUV to China ASML stayed silent because they themselves depend on US tech.



Ideally, apart from this push to get fabs we should focus on one particular area of semicon either the design softwares or photoresists or lenses etc. So that we too can integrate in the supply chains globally and become indispensable like how Japan, Germany etc are.
The latest EUV machine ASML makes was built a lot on US Gov and Intel sponsored research in Argonne National Labratory and other US gov sites even including Lawrence Livermore iirc. America is very advanced in laser technology, they tried making lasers to shoot down nuclear missiles and they even tried to make hydrogen bombs using lasers to de compress the secondary fusion stage instead of relying on a primary plutonium stage (they failed after spending billions but they gaines tons of experience). So its safe to say without US approval ASML EUV machines can't move an inch.

China is trying very hard to make their own EUV machines but idt it will happen in the next 5-10 years unless they do cyber espionage on US or ASML companies. To reach EUV tech American labs did research on lasers from 1970s! So China will remain stuck at 5 nm for the foreseeable future which is still a formidable capability. Wtr to India, first we need to focus on legacy nodes and defeating Chinese over capacity in legacy nodes. Imo it's wrong to jump to advanced nodes before we build a huge production capacity for legacy nodes. All of our critical systems and defence tech use legacy nodes of up to 28 nm. We need to gain self sufficiency here first. Second of all we need to form indigenous design companies who can make SoCs and chips on this process bcuz many of our engineers are designing chips for IBM, Google etc.
 
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It is not either legacy nodes or advanced nodes. We need all the semicon plants we can get.
But there is implicit ban on advanced nodes plant in India (<14nm), which we should be having one way or another to be truly self reliant.
See the reason given by TSMC to India, Qatar etc, when asked to setup advanced node:


See the semicon industry is very large with very niche players from Japan, Germany etc whom whole industry depends for these advanced nodes and TSMC is just a integrator of all these inputs(not discounting them for running a fab, they did good). Even the ASML of Dutch depends on very specific inputs from US and Germany, that is why when US banned ASML from exporting their EUV to China ASML stayed silent because they themselves depend on US tech.



Ideally, apart from this push to get fabs we should focus on one particular area of semicon either the design softwares or photoresists or lenses etc. So that we too can integrate in the supply chains globally and become indispensable like how Japan, Germany etc are.
Wtr to your last point, I 1000000% agree. We need to become masters of critical tech which world depends on. It needs a national push. Germany has huge experience in lenses, so idt we can compete with them in that area yet. We have a strong chance for design software. Even China still depends on US for EDA software. We need to go all in in this area as software is one of our strong suits. Iirc we even made a software for LCA Tejas which even Airbus licensed from us. Unrelated to semiconductors but shows our potential in software.
 
The latest EUV machine ASML makes was built a lot on US Gov and Intel sponsored research in Argonne National Labratory and other US gov sites even including Lawrence Livermore iirc. America is very advanced in laser technology, they tried making lasers to shoot down nuclear missiles and they even tried to make hydrogen bombs using lasers to de compress the secondary fusion stage instead of relying on a primary plutonium stage (they failed after spending billions but they gaines tons of experience). So its safe to say without US approval ASML EUV machines can't move an inch.

China is trying very hard to make their own EUV machines but idt it will happen in the next 5-10 years unless they do cyber espionage on US or ASML companies. To reach EUV tech American labs did research on lasers from 1970s! So China will remain stuck at 5 nm for the foreseeable future which is still a formidable capability. Wtr to India, first we need to focus on legacy nodes and defeating Chinese over capacity in legacy nodes. Imo it's wrong to jump to advanced nodes before we build a huge production capacity for legacy nodes. All of our critical systems and defence tech use legacy nodes of up to 28 nm. We need to gain self sufficiency here first. Second of all we need to form indigenous design companies who can make SoCs and chips on this process bcuz many of our engineers are designing chips for IBM, Google etc.
Yes, as I quoted my old post US formed a LLC called EUV-LLC with intel and others later ASML was also roped in and tech transfer happened. Cymer a US based company makes these laser source for EUVL machines, ASML bought it in 2013. (pg 13 in pdf)

You can see S&T review articles from LLNL about their and US contribution to EUVL tech

Coming to China, I don't follow them much. But you are right there is so much to catch-up for Chinese if they approach the same path. I think they have DUV lense based setup already and with it you can try 7nm nodes(I may be wrong) but yield will be less. The tricky thing with sanctions is, even with lower yield these 7nm or whatever advanced china can make will be the only game in town. So, chinese domestic customers will not care but exports will be hit, cause anyone will choose similar or even lower priced TSMC manufactured advanced chips than chinese ones.
GOI should learn from US strangulation of chinese and prepare for it covertly atleast to maintain current compute levels for consumers in India. For Strategic puproses as you said anyway they are in legacy nodes and yield is not required for them.

Wtr to your last point, I 1000000% agree. We need to become masters of critical tech which world depends on. It needs a national push. Germany has huge experience in lenses, so idt we can compete with them in that area yet. We have a strong chance for design software. Even China still depends on US for EDA software. We need to go all in in this area as software is one of our strong suits. Iirc we even made a software for LCA Tejas which even Airbus licensed from us. Unrelated to semiconductors but shows our potential in software.
Yep, just one critical area where you are the market leader is enough to get leverage. But maintaining that market leader position requires substantial efforts and R&D investment continuously. Even Photoresists and chemicals side can be tried. Aim for one area and put all resources there, we can have market leader in that segment, requires smart policy and execution.

Software(EDA) is also US strong suite, so care should be taken that US companies should not buy out our companies.
Recently Zoho dropped their Fab plan, I hope they try to venture into EDA space atleast.
 
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Tata Electronics, BEL sign MoU to power India’s semiconductor and electronics push

Tata Electronics and Bharat Electronics have signed an MoU to collaborate on semiconductor and electronics solutions, advancing India’s self-reliance goals across chip design, fabrication, OSAT, and defence-grade electronics components.

By Sheersh Kapoor
June 6, 2025, 4:35:25 PM IST (Published)
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Tata Electronics and Bharat Electronics Limited (BEL) on Wednesday signed a Memorandum of Understanding (MoU) to jointly explore semiconductor and advanced electronics solutions aligned with India’s push for self-reliance in the sector.

The MoU was formalised on 5 June at Bombay House, Tata Group’s Mumbai headquarters, by Dr Randhir Thakur, CEO and MD of Tata Electronics, and Manoj Jain, CMD of BEL. BEL, a Navratna defence PSU, specialises in design and manufacture of advanced electronics systems for strategic and civilian use.

The collaboration will focus on identifying and developing end-to-end solutions spanning semiconductor fabrication (Fab), Outsourced Semiconductor Assembly and Test (OSAT), and chip design services.

Potential components include microcontrollers (MCUs), systems-on-chip (SoCs), monolithic microwave integrated circuits (MMICs), and other processors for BEL’s current and future needs.

The two companies also plan to co-develop optimal manufacturing practices through knowledge sharing and joint capability development, supporting India's broader vision to reduce import dependency in critical electronics and semiconductor domains.

Ahead of the announcement, shares of BEL closed at ₹390.70, down 0.76% on the BSE.

Tata Electronics, BEL sign MoU to power India’s semiconductor and electronics push - CNBC TV18
 
Just disable Javascript. And you can read the whole article.

Tldr: The government is funding them to design a GPU based on 2nm node. After designing work is done for the first five years, they plan to outsource manufacturing to TSMC while working to establish semiconductor fabrication facilities in India.

We can't really manufacture sub 14nm nodes without EUVs. Well technically you can go as far 7nm/5nm with DUVs by using multi patterning but that is very costly and inefficient. You get lower yields for more price..
 
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Micron to invest 13,000 crore INR to set up facility to manufacture semiconductor and electronics related components. Aequs to invest 100 crore INR to set up electronics manufacturing facility
 

Micron to invest 13,000 crore INR to set up facility to manufacture semiconductor and electronics related components. Aequs to invest 100 crore INR to set up electronics manufacturing facility
 
Ministry of Defence

DRDO & IIT Delhi demonstrate Quantum Entanglement-Based Free-Space Quantum Secure Communication over more than 1 km distance

Paves way for development in quantum cyber security, quantum networks & future quantum internet
India has entered into a new quantum era of secure communication which will be a game changer in future warfare: Raksha Mantri

Posted On: 16 JUN 2025 5:18PM by PIB Delhi
1750089617103.png

India has entered into a new quantum era by successfully demonstrating an experimental advancement through DRDO-Industry-Academia Centre of Excellence (DIA-CoE), IIT Delhi. The free-space quantum secure communication using quantum entanglement over a distance of more than one km was achieved via a free-space optical link established on the IIT Delhi campus.

The experiment attained a secure key rate of nearly 240 bits per second with a quantum bit error rate of less than 7%. This entanglement-assisted quantum secure communication paves the way for real-time applications in quantum cyber security, including long-distance Quantum Key Distribution (QKD), the development of quantum networks, and the future quantum internet. These efforts align with India’s broader objectives to advance quantum technologies for national development.

Under the project ‘Design and development of photonic technologies for free space QKD’, sanctioned by Directorate of Futuristic Technology Management (DFTM), DRDO, the demonstration was given by Prof Bhaskar Kanseri’s research group in the presence of several dignitaries, including the DRDO DG (MED, COS & CS), Director SAG, Director DFTM, Dean (R&D) IIT Delhi, Director (DIA-CoE) and DRDO laboratory scientists.

Quantum entanglement-based QKD offers several significant advantages over the traditional prepare-and-measure method by enhancing both security and functionality. Even if devices are compromised or imperfect, the use of quantum entanglement ensures the security of key distribution. Any attempt to measure or intercept the entangled photons disturbs the quantum state, allowing authorised users to detect the presence of an eavesdropper.

Quantum communication provides fundamentally unbreakable encryption, making it a dual-use technology with applications in securing data in strategic sectors such as defence, finance, and telecommunications, as well as in protecting national security-related communications. Free-space QKD eliminates the need to lay optical fibers, which can be both disruptive and expensive, especially in challenging terrains and dense urban environments.

Earlier, India’s first intercity quantum communication link between Vindhyachal and Prayagraj in 2022, using commercial-grade underground dark optical fiber was demonstrated by DRDO scientists along with Prof Bhaskar’s team. More recently, in 2024, the team successfully distributed quantum keys using entanglement over a 100 km spool of telecom-grade optical fiber in another DRDO-supported project.

These technologies are being developed through DRDO-Industry-Academia – Centres of Excellence (DIA-CoEs) – an initiative of DRDO, where 15 Centres of Excellence have been established at premier academic institutes like IITs, IISc & Universities for development of cutting-edge defence technologies.

Raksha Mantri Shri Rajnath Singh has congratulated DRDO & IIT Delhi for this landmark achievement, stating that India entered into a new quantum era of secure communication which will be a game changer in future warfare.

Secretary Department of Defence R&D and Chairman DRDO Dr Samir V Kamat and Director, IIT Delhi Prof Rangan Banerjee congratulated the team for these key achievements.

https://www.pib.gov.in/PressReleasePage.aspx?PRID=2136702
 
Ministry of Defence

DRDO & IIT Delhi demonstrate Quantum Entanglement-Based Free-Space Quantum Secure Communication over more than 1 km distance

Paves way for development in quantum cyber security, quantum networks & future quantum internet
India has entered into a new quantum era of secure communication which will be a game changer in future warfare: Raksha Mantri

Posted On: 16 JUN 2025 5:18PM by PIB Delhi
View attachment 44518

India has entered into a new quantum era by successfully demonstrating an experimental advancement through DRDO-Industry-Academia Centre of Excellence (DIA-CoE), IIT Delhi. The free-space quantum secure communication using quantum entanglement over a distance of more than one km was achieved via a free-space optical link established on the IIT Delhi campus.

The experiment attained a secure key rate of nearly 240 bits per second with a quantum bit error rate of less than 7%. This entanglement-assisted quantum secure communication paves the way for real-time applications in quantum cyber security, including long-distance Quantum Key Distribution (QKD), the development of quantum networks, and the future quantum internet. These efforts align with India’s broader objectives to advance quantum technologies for national development.

Under the project ‘Design and development of photonic technologies for free space QKD’, sanctioned by Directorate of Futuristic Technology Management (DFTM), DRDO, the demonstration was given by Prof Bhaskar Kanseri’s research group in the presence of several dignitaries, including the DRDO DG (MED, COS & CS), Director SAG, Director DFTM, Dean (R&D) IIT Delhi, Director (DIA-CoE) and DRDO laboratory scientists.

Quantum entanglement-based QKD offers several significant advantages over the traditional prepare-and-measure method by enhancing both security and functionality. Even if devices are compromised or imperfect, the use of quantum entanglement ensures the security of key distribution. Any attempt to measure or intercept the entangled photons disturbs the quantum state, allowing authorised users to detect the presence of an eavesdropper.

Quantum communication provides fundamentally unbreakable encryption, making it a dual-use technology with applications in securing data in strategic sectors such as defence, finance, and telecommunications, as well as in protecting national security-related communications. Free-space QKD eliminates the need to lay optical fibers, which can be both disruptive and expensive, especially in challenging terrains and dense urban environments.

Earlier, India’s first intercity quantum communication link between Vindhyachal and Prayagraj in 2022, using commercial-grade underground dark optical fiber was demonstrated by DRDO scientists along with Prof Bhaskar’s team. More recently, in 2024, the team successfully distributed quantum keys using entanglement over a 100 km spool of telecom-grade optical fiber in another DRDO-supported project.

These technologies are being developed through DRDO-Industry-Academia – Centres of Excellence (DIA-CoEs) – an initiative of DRDO, where 15 Centres of Excellence have been established at premier academic institutes like IITs, IISc & Universities for development of cutting-edge defence technologies.

Raksha Mantri Shri Rajnath Singh has congratulated DRDO & IIT Delhi for this landmark achievement, stating that India entered into a new quantum era of secure communication which will be a game changer in future warfare.

Secretary Department of Defence R&D and Chairman DRDO Dr Samir V Kamat and Director, IIT Delhi Prof Rangan Banerjee congratulated the team for these key achievements.

https://www.pib.gov.in/PressReleasePage.aspx?PRID=2136702


 
5 Professors, 2 PhD Scholars, 15 Years: Inside Agnit’s Moonshot to Secure India’s Defence Systems

Shruti Tripathi
Updated on: 28 June 2025 2:39 pm

In the heart of Bengaluru’s academic enclave, a daring experiment in Gallium Nitride defied odds, bureaucracy, and conventional wisdom. What emerged is Agnit and through it, India’s strategic moonshot in semiconductors
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5 Professors, 2 PhD Scholars, 15 Years: Inside Agnit’s Moonshot to Secure India’s Defence Systems

In 2006, deep inside the wooded campus of the Indian Institute of Science (IISc) in Bangalore, a quiet collaboration was taking shape. Five professors and two PhD scholars—each steeped in the rigors of academia and driven by a shared conviction—decided to venture into uncharted territory: Gallium Nitride. GaN, as it is known in engineering shorthand, was a formidable compound, celebrated for its wide bandgap and unique electronic properties. Globally, it was already making ripples in strategic sectors like defence, aerospace, and high-frequency communications. In India, however, it was barely a whisper—too complex, too specialized, and too dependent on foreign suppliers to be considered viable.

But that unfamiliarity made it all the more compelling. Over the next 15 years, these scientists toiled in relative obscurity—publishing, prototyping, filing patents—slowly constructing an edifice of intellectual capital that could disrupt an entire industry. It was a mission that demanded endurance more than excitement, and far more faith than fanfare.

In 2019, that long incubation culminated in the birth of Agnit Semiconductors, India’s first start-up dedicated to GaN technologies. Helmed by Hareesh Chandrasekar, Shankar Kumar Selvaraja, Madhusudan Atre, Muralidharan Rangarajan, Srinivasan Raghavan—fondly called Vasu—and Mayank Shrivastava, Agnit is one of the rare Indian deep tech startups born in an academic setting.

Setting Agnit apart is the uniqueness of GaN, a material whose capabilities are not merely incremental but transformative. Unlike traditional silicon-based semiconductors, GaN enables electronics to run faster, cooler, and more efficiently. These qualities make it ideal for applications that demand high power and high frequency—radars, jammers, satellites, and next-generation wireless systems. Simply put, GaN does what silicon cannot.

“This is certainly not an overnight effort,” Chandrasekar, Agnit’s CEO, explains. “When I say we have manufacturing IP, I mean we don’t just design these chips—we actually make them. That’s a rarity in India.”

Betting on Both Sides of the Equation

Designing semiconductors is difficult. Manufacturing them is exponentially harder. Most start-ups in India take the design-only route—it’s less capital-intensive, faster to market, and far more attractive to risk-averse investors. Agnit, however, chose the harder path. It invested in building end-to-end capabilities: from material research and chip architecture to foundry partnerships and fabrication know-how. This duality—owning both the design and manufacturing IP—distinguishes Agnit not only in India but globally.

The company’s current focus is sharply aligned with India’s strategic imperatives. GaN’s performance advantage makes it an ideal candidate for mission-critical systems. “Because it is an outperformer,” says Chandrasekar. “Naturally suited for defence-grade applications like next-gen radar and secure communications—systems where failure is not an option.

India’s Ministry of Defence has in recent years pushed aggressively for the indigenisation of such technologies, encouraging the development of home-grown alternatives to imported hardware. Agnit’s all-Indian supply chain, its domestic R&D, and its sovereignty-first model fit right in. “Our value to the defence ecosystem lies in the fact that we don’t just design these solutions—we manufacture them here, in India. That end-to-end capability is crucial,” Chandrasekar adds.

Co-founder Muralidharan Rangarajan points out that GaN’s appeal goes well beyond defence. It is equally critical to next-generation telecom infrastructure, satellite communications, and electric vehicles. In a decarbonising world driven by speed and scale, GaN is fast becoming the material of strategic consequence.

The iDEX Catalyst


Still, ambition needs acceleration. That came in the form of iDEX—the Innovations for Defence Excellence initiative set up by the Indian government to foster indigenous technological innovation in military applications. iDEX identified Agnit early and awarded it ₹1.5 crore under an Open Challenge for developing GaN semiconductor components tailored for defence electronics.

That grant, while modest in the scale of semiconductor economics, was a turning point, an important endorsement. It conferred legitimacy and brought Agnit into the conversation about India’s strategic future. “iDEX wasn’t just a funding platform—it was a signal,” says Srinivasan Raghavan. “It told the ecosystem that building this in India was not only possible but urgent.”

What also distinguished iDEX was its enlightened IP policy. While it funds the development of proprietary technologies, it allows start-ups to retain their IP. The government only reserves the right to step in if the start-up fails to commercialise the technology within a reasonable period, in which case it can deploy it in national interest.

“For IP-driven companies like ours, that clarity is everything,” Chandrasekar explains. “Investors don’t just invest in teams—they invest in clean IP.”

Capital, Constraints, and the Long Road

Agnit’s journey has been anything but smooth. Since 2021, the start-up has raised approximately $4.8 million—$3.5 million of that in a seed round led by 3one4 Capital, with participation from Zephyr Peacock and former Cognizant CEO Lakshmi Narayanan.

"We supported Agnit because their IISc-based team is leading the development of vertically‑integrated GaN semiconductors crucial for India’s energy, 5G, EV, and strategic imperatives. We believe investing in deep‑tech from India’s top academic institutions is essential to the country’s VC ecosystem. Agnit, emerging from rigorous and globally competitive research, demonstrates how robust, locally grounded technical foundations can drive national missions for semiconductor self‑reliance," said Pranav Pai, founding partner of 3One4 Capital.

But in deep-tech, capital requirements scale rapidly. Designing chips is expensive, fabricating them even more so. Building a production-ready, qualification-tested prototype can cost anywhere between $2 million and $4 million, and the development cycle often spans two to four years.
“Unlike software, where you can iterate quickly, in semiconductors each mistake can cost you millions,” says Chandrasekar. “And even if you get the physics right, getting it to work in real-world conditions is a whole different beast.”

That’s why Agnit’s founders believe India needs more robust support mechanisms. iDEX is an excellent start, but it must be scaled. The missing link, they argue, is what they call “viability gap funding”—capital that bridges the time between product viability and commercial traction.

Equally vital are procurement commitments. If government departments or PSUs could offer even modest long-term purchase contracts, it would de-risk R&D and make capital infusion from private investors far more likely. “The market for GaN exists,” says Raghavan. “But early adopters must signal intent. Otherwise, we’re stuck in a proof-of-concept limbo.”

Despite these hurdles, Agnit is pushing forward. The company is currently engaged in five pilot projects—three with Defence Public Sector Undertakings (DPSUs) and two with private players in the defence sector. Early tests are promising. More importantly, the strategic relevance of what they’re building is undeniable.

The broader context also favours them. According to the India Electronics and Semiconductor Association (IESA), India’s semiconductor market is expected to nearly double—from ₹4.5 lakh crore ($52 billion) in 2024 to ₹8.95 lakh crore ($103.4 billion) by 2030. This growth will be driven by mobile handsets, consumer electronics, automotive systems, and defence technology.

But you don’t build technological resilience with services alone. You do it with products. You do it with IP. You do it with conviction,asserts Chandrashekhar.

The Global GaN Frontier

None of this is happening in a vacuum. Globally, the GaN semiconductor race is intensifying. American firms like Qorvo and Wolfspeed, Japanese giants like Sumitomo Electric, and German powerhouses like Infineon are all investing heavily in GaN technologies. These companies operate with massive capital reserves and decades of ecosystem experience.

And yet, Agnit sees room to grow.

We’re building for strategic clarity. For independence. And for the long game,” says Chandrasekar says.

That focus includes a complete commitment to R&D, local partnerships, and export-readiness. Agnit’s leadership is aware that building an IP-led product company in India is both rare and risky. But it’s also necessary.

“For the longest time, we’ve said India can’t build chips. We’ve proved otherwise,” says Chandrasekar. “Now we want to prove we can lead.”

With the right support—financial, regulatory, and strategic—Agnit could well become the vanguard of India’s deep-tech renaissance. Not just a torchbearer for GaN, but a case study in how vision, grit, and science can bend the arc of national capability.

5 Professors, 2 PhD Scholars, 15 Years: Inside Agnit’s Moonshot To Secure India’s Defence Systems From IISc Campus
 
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