India’s Semiconductor Problem Is Not a Missing Slogan

India’s semiconductor weakness is not that India woke up one morning and forgot to build chips; it is that the country spent decades treating electronics as assembly, design as services, manufacturing as someone else’s dirty problem, and strategic capability as a thing that could be announced into existence by ministerial optimism.

That distinction matters. A chip is not a single product. It is a treaty between physics, chemistry, software, precision machinery, materials science, logistics, water, power, yield engineering, export controls, and the sort of institutional patience that does not get applause on television. To say “we will make chips” is like saying “we will make modern medicine.” Fine. Do you mean syringes, antibiotics, magnetic resonance imaging [MRI, a high-resolution medical imaging technology], robotic surgery, hospital workflow, biomedical research, insurance billing, or the bacteria in the sink drain that laughs at all of them?

The word “semiconductor” hides a whole stack. At the top are chip designs: processors, memory controllers, radio-frequency circuits, automotive microcontrollers, power devices, artificial intelligence [AI, software and hardware systems that perform tasks normally associated with human cognition] accelerators, and custom application-specific integrated circuits [ASICs, chips designed for a particular task rather than general-purpose computing]. Below that sit electronic design automation [EDA, specialized software used to design and verify chips], intellectual property [IP, reusable circuit designs licensed into chips], verification, physical layout, tape-out, wafer fabrication, assembly, testing, packaging, materials, chemicals, gases, photomasks, lithography tools, deposition systems, etchers, metrology instruments, and the grim little discipline called yield, where a factory discovers whether its beautiful theory can survive dust, vibration, humidity, human error, and the personality disorders of atoms.

India has real strength in parts of this stack. It has a large pool of engineers working in chip design, verification, embedded systems, and global semiconductor research centers. This is not imaginary. Many chips designed by American, European, Taiwanese, Korean, and Japanese companies have Indian engineering labor somewhere inside the story. But design labor is not semiconductor sovereignty. It is an important room in the mansion, not the mansion, not the foundation, and certainly not the power plant outside.

India fell behind because the post-independence state built scientific islands rather than industrial continents. There were serious institutions, serious scientists, and serious ambitions. But semiconductor manufacturing punishes fragmentation. A laboratory can produce a heroic result. A fab must produce repeatable results, all day, every day, at scale, with suppliers nearby, utilities stable, chemicals pure, machines maintained, defects counted, wafers tracked, and customers confident enough to bet their own products on your process. A chip fab is not a temple of genius. It is a monastery of repetition.

The United States [US] began with a different inheritance. It had defense demand, university research, venture capital, corporate laboratories, early computer markets, aerospace, a deep equipment base, and companies such as Fairchild, Intel, Texas Instruments, IBM, Applied Materials, Lam Research, KLA, Cadence, Synopsys, and later NVIDIA, AMD, Qualcomm, Apple, and Broadcom. The US did not merely “make chips.” It shaped the stack: chip architecture, EDA, fabrication equipment, design ecosystems, research funding, military procurement, and high-margin fabless business models. Even after losing a large share of manufacturing capacity to Asia, the US remained central because it controlled design, tools, software, and capital allocation.

China, meanwhile, did the brutal industrial thing India often praises but rarely copies in full: it used scale, subsidies, domestic demand, state pressure, forced ecosystem formation, and long-horizon manufacturing discipline. China still lags at the bleeding edge, especially where extreme ultraviolet [EUV, a lithography technology using very short-wavelength light to pattern the most advanced chips] tools and advanced process know-how are concerned. But it has built massive capacity in mature nodes, packaging, equipment substitution, chemicals, materials, and domestic electronics demand. It did not wait until every part was elegant. It built the swamp, then built roads through it, then discovered the swamp had become an industrial province.

India, by contrast, loved the cleaner story: software. Services. English-speaking engineers. Global delivery. Consulting. Back-office brilliance. Code without furnaces. Code without ultrapure water. Code without $20 billion concrete bets that may become obsolete before the ribbon-cutting garland dries. The country became comfortable exporting intelligence while importing the physical substrate on which that intelligence runs.

This is why “self-sufficiency” must be handled carefully. Total chip self-sufficiency is a fantasy for almost every country. Even the US is not fully self-sufficient. Even China, after enormous spending, still depends on foreign tools, software, materials, and know-how in critical areas. Taiwan is supreme in advanced foundry manufacturing but depends on Dutch lithography, American EDA, Japanese materials, global customers, and geopolitical tolerance. South Korea dominates memory but does not own the whole universe. The semiconductor supply chain is not a ladder. It is a nervous system.

The practical question for India is therefore not “Can India make everything?” It is “Where can India become hard to ignore?” That is a better question because it has teeth.

The first target should be mature-node fabrication and power electronics, not childish fantasies of immediately beating Taiwan Semiconductor Manufacturing Company [TSMC, the world’s leading contract chip manufacturer] at the frontier. Mature nodes are not obsolete. This is one of the great misunderstandings of the chip-unaware laity. A 28-nanometer chip is not a bullock cart because a 2-nanometer chip exists. Cars, appliances, medical devices, defense electronics, industrial controllers, energy systems, railway systems, telecom equipment, smart meters, and Internet of Things [IoT, networks of connected sensors and devices] devices all depend heavily on mature, reliable, cheap, boring chips. And in infrastructure, boring is not an insult. Boring is civilization after it has stopped showing off.

India’s first serious manufacturing moves are therefore directionally sensible. A 28-nanometer-class fab in Gujarat, packaging and testing units in Gujarat and Assam, and allied special economic zone [SEZ, a designated industrial area with specific regulatory and tax treatment] reforms are not trivial. Assembly, testing, marking, and packaging [ATMP, the back-end process that turns fabricated silicon dies into usable chip packages] and outsourced semiconductor assembly and test [OSAT, third-party packaging and testing services] are real steps. They are not the whole stack, but they are not nothing. Anyone calling packaging “low-end” has not looked closely at modern chiplets, high-bandwidth memory, thermal management, substrate constraints, and advanced packaging, where the old front-end/back-end hierarchy is beginning to wobble like a cheap plastic chair.

But India must be honest: packaging imported dies is not chip sovereignty. A fab announced is not a fab qualified. A fab built is not a fab yielding. A fab yielding one product is not an ecosystem. A domestic chip in a press release is not a secure supply chain. This distinction is where public discourse becomes syrupy and dangerous. Nations with weak technical literacy are easily fed ceremonial nouns: mission, hub, revolution, ecosystem, leap. The words arrive polished and smiling, like wedding guests. The wafers do not care.

The deepest reason India is behind is not just capital. It is ecosystem absence. Semiconductor manufacturing depends on clusters of suppliers: specialty gases, photoresists, wet chemicals, silicon wafers, masks, spare parts, process engineers, tool maintenance teams, cleanroom contractors, environmental systems, ultrapure water plants, hazardous waste handling, precision logistics, and customers willing to co-develop products. A fab without this ecosystem is like a hospital with a famous surgeon and no blood bank, no nurses, no sterilization, no imaging, no pharmacy, and a lift that stops between floors during surgery.

This is also why infrastructure matters more than slogans. Fabs need power that behaves like an adult. They need water systems that do not improvise. They need roads, airports, ports, customs clearance, housing, schools, hospitals, and industrial discipline. Engineers with families do not live permanently inside patriotic speeches. They need livable towns, reliable utilities, credible management, and a reason not to leave for Hsinchu, Phoenix, Singapore, Dresden, Seoul, or Austin.

There is a cultural problem too, and it should be said plainly. India often celebrates talent but underbuilds institutions. It worships examinations, not workmanship. It produces clever individuals and then places them in systems designed by clerks, defended by middlemen, slowed by procurement rituals, and explained by officials who think a dashboard is evidence of reality. Semiconductor manufacturing is merciless toward this kind of arrangement. Yield does not improve because the file moved from one desk to another. A particle defect does not respect seniority. A process excursion cannot be bribed into statistical control.

China’s advantage here is not moral superiority; it is industrial ferocity. The Chinese state can waste money at magnificent scale, and it has done so. But it also forces supply chains to form. It creates demand by mandate. It tells domestic firms to buy domestic equipment. It tolerates ugly intermediate capability. It copies, learns, iterates, subsidizes, and absorbs pain. India tends to prefer immaculate policy language before the machine exists. China builds five imperfect machines and lets three fail noisily. That is expensive, often coercive, sometimes reckless, but industrial learning is not a debating society.

The US model is different again. The US remains powerful because it has the commanding heights: design firms, EDA software, equipment companies, research universities, venture capital, defense demand, and deep capital markets. Its weakness is manufacturing hollow-out, construction cost, workforce constraints, and political discontinuity. The CHIPS and Science Act put serious money back into domestic manufacturing and research, but rebuilding fabs is not like reopening a sandwich shop. Skills decay. Supplier networks move. Construction stretches. Permitting bites. Costs swell. Still, the US is not starting from dust. It is trying to reconnect a body whose nerves, muscles, and brain were separated by decades of globalization.

India is starting with a different body. It has demand and design talent, but weaker manufacturing depth. It has political attention now, but not yet enough process culture. It has conglomerates willing to invest, but not yet enough specialized suppliers. It has engineering graduates, but not enough fab-ready technicians, process integration engineers, equipment maintenance specialists, materials scientists, and production managers who understand semiconductor discipline in their bones. A chip factory is staffed not by generic “STEM talent” but by people who know how to keep a plasma etcher, lithography track, chemical mechanical polishing [CMP, a process that flattens wafer surfaces using chemistry and polishing], metrology line, and statistical process control system from quietly conspiring to ruin your quarter.

The second target should be compound semiconductors and power devices. Silicon logic gets the glamour, but gallium nitride [GaN, a semiconductor material useful for high-frequency and power applications] and silicon carbide [SiC, a semiconductor material suited to high-voltage and high-temperature power devices] matter for electric vehicles, chargers, solar inverters, railways, defense, telecom, industrial drives, and grid equipment. India has large domestic need in energy, mobility, and infrastructure. It should not chase only the chip that goes into a flagship phone. It should chase the chip that keeps a train running, a solar inverter efficient, a radar functional, a medical device reliable, and a power system less wasteful.

The third target should be packaging, especially advanced packaging. The future of performance is not only smaller transistors. It is also chiplets, heterogeneous integration, high-density interconnects, substrates, thermal engineering, and stacking. In plain English: instead of making one heroic chip do everything, companies increasingly stitch specialized chips together in one package, like a very expensive thali where every compartment has a job and the chutney cannot leak into the dal. This creates an opening. Advanced packaging is technically demanding, strategically important, and not as completely locked up as leading-edge wafer fabrication. India should treat it as a national manufacturing discipline, not a consolation prize.

The fourth target should be design-to-manufacturing linkage. India has design talent, but much of it serves foreign product roadmaps. A serious domestic program would create Indian fabless firms in automotive, power management, industrial control, secure identity hardware, telecom, defense, medical electronics, and edge AI. These firms should not be decorative startups producing pitch decks about “revolutionizing silicon.” They should have anchor customers, reference designs, test infrastructure, EDA access, fabrication pathways, packaging support, and procurement channels. The state can help here, but it must avoid the old disease: picking favorites because they are politically connected rather than technically credible.

The fifth target should be public procurement with engineering intelligence. India’s government buys enormous quantities of electronics directly and indirectly: identity systems, defense equipment, smart meters, railways, health systems, energy infrastructure, telecom, satellites, public-sector computing. Procurement can create domestic demand, but only if written carefully. Bad procurement says “use Indian chips” and produces expensive mediocrity. Good procurement says: for specified classes of mature, security-sensitive, long-life systems, domestic or trusted-supply chips will receive preference if they meet tested reliability, lifecycle, security, and cost thresholds. The difference is the difference between industrial policy and patriotic shopping.

The sixth target should be equipment and materials niches. India will not build an EUV lithography competitor next Tuesday, and anyone pretending otherwise should be made to explain mask defects to a room full of process engineers until humility blooms. But the equipment stack has many layers: wet benches, gas delivery systems, pumps, valves, sensors, cleanroom components, automation, inspection subsystems, specialty chemicals, ceramic parts, quartzware, filters, power supplies, and eventually more complex tools. Japan, the US, the Netherlands, Germany, South Korea, and Taiwan did not become suppliers by chanting. They accumulated terrifyingly specific competence. India needs the same appetite for small, unglamorous mastery.

The seventh target is talent, but not in the usual lazy way. “Skill development” has become one of those phrases that dies of politeness. Semiconductor talent means curricula tied to actual tools, apprenticeships in fabs and OSAT lines, technician pathways with dignity, industry-funded labs, failure analysis training, cleanroom discipline, safety culture, and migration pathways for experienced global Indians to return without being suffocated by bureaucracy. India does not merely need more engineers. It needs more people who can debug a process at 3 a.m. without turning the incident into a blame festival.

There is also a governance question. Semiconductor policy cannot be run like a festival calendar. It needs continuity across decades. A fab investment cycle is long. Tool orders are long. Qualification is long. Customer trust is long. A new node is long. Supplier development is long. If policy changes every budget, if tax treatment becomes unpredictable, if customs delay critical parts, if state and central governments compete for credit while firms bleed time, then India will remain a nation of beginnings. India is already dangerously good at beginnings.

The comparison with China should not become envy, and the comparison with the US should not become mimicry. India cannot copy China’s state machinery without importing its authoritarian costs. It cannot copy the US because it does not have the same capital markets, defense-industrial history, university-industry pipeline, or incumbents. India needs a third path: democratic industrial seriousness. That means fewer victory laps, more institutional plumbing. Less slogan, more supplier qualification. Less “global hub,” more defect-density reduction. Less ministerial poetry, more yield curves.

A realistic thirty-year path would look uneven and almost boring at first. In the late 2020s, India should make packaging real, qualify the first fabs, produce mature-node chips for selected domestic sectors, train technicians at scale, and build supplier parks around actual factories rather than real-estate fantasies. In the 2030s, it should deepen mature-node manufacturing, compound semiconductors, automotive and industrial chips, advanced packaging, secure microcontrollers, domestic fabless firms, and selected equipment and materials niches. By the 2040s, if it has kept its nerve, India may be able to compete in more advanced manufacturing segments, especially if the industry itself shifts further toward chiplets, packaging-led performance, and domain-specific architectures rather than pure transistor shrinkage.

The hardest part will be resisting theatrical self-congratulation. The laity can be forgiven for not knowing what a wafer start is, why 28 nanometers still matters, why EUV tools are geopolitical objects, why a cleanroom is not just a clean room, or why yield is destiny. But policymakers, journalists, investors, and technical leaders cannot be forgiven for confusing assembly with sovereignty, announcements with capacity, or domestic branding with domestic capability. A country that wants to build chips must first build an immunity to its own applause.

The non-obvious architectural insight is this: semiconductor sufficiency is less about owning one spectacular fab and more about reducing the number of external veto points across a product class. If India can design, fabricate, package, test, qualify, secure, and maintain enough chips for power systems, automotive electronics, telecom infrastructure, defense subsystems, medical devices, identity hardware, and industrial controllers, then it gains meaningful sovereignty even without leading the world at 2 nanometers. If it imports every critical tool, every wafer, every material, every design block, and every expert, then even a shiny local fab remains a rented flag.

India should therefore define sufficiency by strategic coverage, not nationalist intoxication. The goal is not to make every chip in every iPhone. The goal is to ensure that a border crisis, pandemic, export ban, shipping shock, Taiwan Strait emergency, or supplier bankruptcy does not turn Indian infrastructure into a museum exhibit. That requires classification: which chips are essential, which are substitutable, which are security-sensitive, which need domestic production, which can come from trusted partners, which require stockpiles, and which are not worth chasing. This is dull work. Naturally, it is the work that matters.

A final warning: protectionism can build capability or preserve incompetence. The difference is performance pressure. India must protect learning, not laziness. Domestic firms should receive support, but with milestones, audits, customer validation, export ambition, and consequences. A subsidy without discipline is just a garland placed on an invoice. A national mission without technical honesty becomes a parade float. Very nice from a distance. Mostly plywood underneath.

India can become important in semiconductors. Not overnight. Not by chanting “self-reliance” into a microphone. Not by pretending that every ATMP unit is a moon landing. But by choosing the right layers of the stack, building patient institutions, welcoming foreign expertise without surrendering all learning, forcing local supplier formation, respecting technicians, protecting policy continuity, and measuring success in qualified products rather than televised confidence.

The chip world is not kind, but it is not closed. It rewards countries that can combine science with manufacturing, capital with patience, ambition with humiliation, and strategy with the willingness to make ten thousand small things work before claiming greatness. India has spent too long wanting the fruit without growing the orchard. The next decades will show whether it can tolerate the mud, grafting, pests, failed seasons, and unromantic labor by which orchards actually appear.