<h2>Executive Summary</h2><ul><li><p>Semiconductors are today a strategic lever of national power.</p></li><li><p>India’s stability, scale and design depth give it a credible starting point in the global semiconductor reset.</p></li><li><p>AI is transforming both, chip demand and development, creating new adjacencies.</p></li><li><p>Environmental concerns are turning sustainability into a competitive edge.</p></li><li><p>The imperatives for India Inc to move from intent to capability including owning IP, deepening talent and building a resilient startup ecosystem.</p></li></ul>.<p>With technology, geopolitics and supply-chain fragility converging to redefine national competitiveness, semiconductors have moved from a behind-the-scenes enabler to a strategic priority for governments and enterprises alike. This ~$600 bn industry is poised to breach the trillion-dollar mark by 2030, driven by an explosion of data, compute intensity and AI-led workloads. At a recent India CEO Forum session in Bangalore, Anand Ramamoorthy, Managing Director of Micron Technology Operations India LLP, explored the forces reshaping the industry and India’s ambitions of building domestic capability. The discussion examined structural headwinds, the role of AI and architectural innovation in shaping its future, and the opportunity for India to position itself as a trusted, scalable partner in the world’s most complex value chain.</p>.<h2>The Shifting Architecture of Compute</h2><p>A fundamental shift is underway in terms of how the world computes. For decades, chips followed a simple pattern: every few years, they became significantly faster and cheaper because engineers could pack more transistors into the same space. This pattern, known as Moore’s Law, powered the digital revolution. But chips are now packed so tightly that performance is improving at an ever-diminishing rate. Moreover, in modern computing architecture, nearly 70% of energy is consumed not in computation itself, but in moving data between compute and memory. Resultantly, latency widens, inference cycles slow and the power demands of AI-heavy applications become unsustainable. These constraints have pushed the industry towards architectural innovation rather than pure scaling. Compounding these pressures is rising concentration in global manufacturing. TSMC produces most leading-edge chips, which mean that geopolitical disruptions can reverberate globally. Owing to prohibitive costs and complexity-related issues, even leading players, such as NVIDIA, AMD and Qualcomm, design but do not fabricate chips, with only select firms like Micron and Intel maintaining in-house manufacturing. This safeguards crucial process expertise but also creates sector-wide vulnerabilities.</p>.<h2>India’s Position in a Rewired World</h2><p>India’s semiconductor story began in the 1980s with Texas Instruments setting up its first design centre in Bangalore. Overthe next few decades, the country built a substantial engineering base with deep capabilities in verification, physical design, emulation and firmware. Much of this work remained technically sophisticated but rarely translated into architectural ownership or IP creation. As global interest in diversification grew, India began expanding its role beyond design into manufacturing, marking the next phase of its semiconductor journey. Today, India’s chip- manufacturing story focuses on backend operations (assembly, test and packaging), where talent is abundant and the job-creation potential is high. Building this ecosystem will take time, but India’s strengths are distinctive. It offers scale, design depth and – unlike Taiwan or Israel – relative geopolitical stability, all of which can be leveraged to build integrated semiconductor capabilities. The India Semiconductor Mission, alongside the design-linked incentive (DLI) program, is nudging the country towards upstream work and IP creation. The setting up of a $12 bn deep-tech fund offering interest-free and subsidised loans signals long term intent.</p>.<h2>AI, Innovation and the New Workflows of Silicon</h2><p>AI sits squarely at the heart of today’s semiconductor evolution. Every major AI model and data centre relies on memory and storage architectures even as AI reshapes semiconductor development itself. Tasks that once took months – including RTL generation, layout verification and post-silicon debugging – are increasingly being automated. This convergence of silicon, software and AI is accelerating a shift towards heterogeneous compute, near-memory processing, neuromorphic concepts and hybrid quantum-classical systems. For India, these shifts open natural adjacencies. Its software-related strengths, maturing design capability and growing expertise in mechanics, materials and thermal engineering create a compelling foundation for advanced packaging, a domain where global capacity is still evolving. India’s startup ecosystem, long seen as the weakest link in its semiconductor ambitions, is also turning a corner. Valley engineers are returning; young graduates are attempting deep-tech ventures; and corporate venture arms such as Intel Capital and Micron Ventures are more engaged in early stage investing.</p>.<h2>Sustainability and the Invisible Costs of Growth</h2><p>Sustainability is becoming a defining concern for semiconductor manufacturing, which tends to be resource-intensive, built on heavy water consumption, high power needs and the release of hazardous by-products. Increasingly, investors are embedding sustainability expectations into deep-tech portfolios, shifting ESG considerations from the optional to the essential. The industry can contribute to global sustainability by producing more energy efficient chips. Lower power silicon reduces cooling loads in data centres, tempers the growth of fossil fuel demand and enables AI to scale more responsibly. Therefore, semiconductor innovation is also climate innovation.</p>.<h2>Imperatives for India Inc.</h2><p>For Indian businesses, the surge in demand for semiconductors is both an opportunity and a strategic concern. Supply chain fragility affects every sector. Dual-use technologies such as AI, cybersecurity, batteries and sensing systems are now central to competitiveness. Companies that build capabilities in these areas will be better positioned to navigate global volatility and reduce the dependence on certain geographies. Talent will be equally decisive. Semiconductor engineering demands a blend of computer science, mechanical engineering, materials science, chemistry and physics. India’s competitiveness will depend on how effectively the industry trains and upskills, including through apprenticeships. Encouragingly, universities are showing a stronger appetite for collaboration, with new centres of excellence emerging and greater alignment between academia and industry.</p><p>Semiconductors have become the defining currency of power. They shape both economic competitiveness and geopolitical leverage. India’s opportunity is real, given a large talent pool, political stability, rising domestic demand and the early foundations of manufacturing and advanced packaging in place. But for capability to match ambition, India needs to move from being a mere participant in the value chain to shaping it through IP creation, specialised talent, global supplier integration and a vibrant startup ecosystem. The nations that manage to combine scale with sovereignty, talent with trust and ambition with execution will surge ahead in the coming decade.</p>
<h2>Executive Summary</h2><ul><li><p>Semiconductors are today a strategic lever of national power.</p></li><li><p>India’s stability, scale and design depth give it a credible starting point in the global semiconductor reset.</p></li><li><p>AI is transforming both, chip demand and development, creating new adjacencies.</p></li><li><p>Environmental concerns are turning sustainability into a competitive edge.</p></li><li><p>The imperatives for India Inc to move from intent to capability including owning IP, deepening talent and building a resilient startup ecosystem.</p></li></ul>.<p>With technology, geopolitics and supply-chain fragility converging to redefine national competitiveness, semiconductors have moved from a behind-the-scenes enabler to a strategic priority for governments and enterprises alike. This ~$600 bn industry is poised to breach the trillion-dollar mark by 2030, driven by an explosion of data, compute intensity and AI-led workloads. At a recent India CEO Forum session in Bangalore, Anand Ramamoorthy, Managing Director of Micron Technology Operations India LLP, explored the forces reshaping the industry and India’s ambitions of building domestic capability. The discussion examined structural headwinds, the role of AI and architectural innovation in shaping its future, and the opportunity for India to position itself as a trusted, scalable partner in the world’s most complex value chain.</p>.<h2>The Shifting Architecture of Compute</h2><p>A fundamental shift is underway in terms of how the world computes. For decades, chips followed a simple pattern: every few years, they became significantly faster and cheaper because engineers could pack more transistors into the same space. This pattern, known as Moore’s Law, powered the digital revolution. But chips are now packed so tightly that performance is improving at an ever-diminishing rate. Moreover, in modern computing architecture, nearly 70% of energy is consumed not in computation itself, but in moving data between compute and memory. Resultantly, latency widens, inference cycles slow and the power demands of AI-heavy applications become unsustainable. These constraints have pushed the industry towards architectural innovation rather than pure scaling. Compounding these pressures is rising concentration in global manufacturing. TSMC produces most leading-edge chips, which mean that geopolitical disruptions can reverberate globally. Owing to prohibitive costs and complexity-related issues, even leading players, such as NVIDIA, AMD and Qualcomm, design but do not fabricate chips, with only select firms like Micron and Intel maintaining in-house manufacturing. This safeguards crucial process expertise but also creates sector-wide vulnerabilities.</p>.<h2>India’s Position in a Rewired World</h2><p>India’s semiconductor story began in the 1980s with Texas Instruments setting up its first design centre in Bangalore. Overthe next few decades, the country built a substantial engineering base with deep capabilities in verification, physical design, emulation and firmware. Much of this work remained technically sophisticated but rarely translated into architectural ownership or IP creation. As global interest in diversification grew, India began expanding its role beyond design into manufacturing, marking the next phase of its semiconductor journey. Today, India’s chip- manufacturing story focuses on backend operations (assembly, test and packaging), where talent is abundant and the job-creation potential is high. Building this ecosystem will take time, but India’s strengths are distinctive. It offers scale, design depth and – unlike Taiwan or Israel – relative geopolitical stability, all of which can be leveraged to build integrated semiconductor capabilities. The India Semiconductor Mission, alongside the design-linked incentive (DLI) program, is nudging the country towards upstream work and IP creation. The setting up of a $12 bn deep-tech fund offering interest-free and subsidised loans signals long term intent.</p>.<h2>AI, Innovation and the New Workflows of Silicon</h2><p>AI sits squarely at the heart of today’s semiconductor evolution. Every major AI model and data centre relies on memory and storage architectures even as AI reshapes semiconductor development itself. Tasks that once took months – including RTL generation, layout verification and post-silicon debugging – are increasingly being automated. This convergence of silicon, software and AI is accelerating a shift towards heterogeneous compute, near-memory processing, neuromorphic concepts and hybrid quantum-classical systems. For India, these shifts open natural adjacencies. Its software-related strengths, maturing design capability and growing expertise in mechanics, materials and thermal engineering create a compelling foundation for advanced packaging, a domain where global capacity is still evolving. India’s startup ecosystem, long seen as the weakest link in its semiconductor ambitions, is also turning a corner. Valley engineers are returning; young graduates are attempting deep-tech ventures; and corporate venture arms such as Intel Capital and Micron Ventures are more engaged in early stage investing.</p>.<h2>Sustainability and the Invisible Costs of Growth</h2><p>Sustainability is becoming a defining concern for semiconductor manufacturing, which tends to be resource-intensive, built on heavy water consumption, high power needs and the release of hazardous by-products. Increasingly, investors are embedding sustainability expectations into deep-tech portfolios, shifting ESG considerations from the optional to the essential. The industry can contribute to global sustainability by producing more energy efficient chips. Lower power silicon reduces cooling loads in data centres, tempers the growth of fossil fuel demand and enables AI to scale more responsibly. Therefore, semiconductor innovation is also climate innovation.</p>.<h2>Imperatives for India Inc.</h2><p>For Indian businesses, the surge in demand for semiconductors is both an opportunity and a strategic concern. Supply chain fragility affects every sector. Dual-use technologies such as AI, cybersecurity, batteries and sensing systems are now central to competitiveness. Companies that build capabilities in these areas will be better positioned to navigate global volatility and reduce the dependence on certain geographies. Talent will be equally decisive. Semiconductor engineering demands a blend of computer science, mechanical engineering, materials science, chemistry and physics. India’s competitiveness will depend on how effectively the industry trains and upskills, including through apprenticeships. Encouragingly, universities are showing a stronger appetite for collaboration, with new centres of excellence emerging and greater alignment between academia and industry.</p><p>Semiconductors have become the defining currency of power. They shape both economic competitiveness and geopolitical leverage. India’s opportunity is real, given a large talent pool, political stability, rising domestic demand and the early foundations of manufacturing and advanced packaging in place. But for capability to match ambition, India needs to move from being a mere participant in the value chain to shaping it through IP creation, specialised talent, global supplier integration and a vibrant startup ecosystem. The nations that manage to combine scale with sovereignty, talent with trust and ambition with execution will surge ahead in the coming decade.</p>
