Industry Odisha Bureau, Aug 23: India’s semiconductor ecosystem has moved decisively beyond policy announcements into actual chip production. Homegrown fabless startups are now designing chips and producing silicon through international foundries. However, converting those silicon achievements into commercially viable orders from equipment manufacturers remains substantially harder. Foreign intellectual property, electronic design automation software and foundry relationships still constrain Indian startups significantly. The larger challenge facing India’s semiconductor ambitions is no longer purely technological; it is commercial viability.
Mindgrove Technologies in Chennai represents the progress visible within India’s semiconductor sector currently. The startup developed a dedicated vision system-on-chip for security hardware applications specifically. The company’s silicon breakthrough arrived in June 2026 through an alliance with Prama India. Prama integrates Mindgrove’s homegrown silicon into domestic CCTV cameras and surveillance network infrastructure. However, the agreement remains a memorandum of understanding rather than binding commercial order. Mindgrove’s prototype completion is expected by end-2026; Prama must then qualify the product before production can commence.
BigEndian, another semiconductor startup, illustrates the extended timelines facing India’s fabless chip companies. BigEndian began developing camera silicon architecture in September 2024 for downstream applications. The company sent its chip blueprint to a Taiwan foundry in January 2026 at that time. Initial silicon delivery was expected in July; actual delivery now anticipated in September. The prototype is expected around November; realistic revenue generation could begin around April 2027 approximately.
The extended timelines reflect broader commercial realities facing India’s semiconductor entrepreneurs today nationally. Both companies spent substantial capital transitioning from design concept through silicon production. Both now must identify customers willing to adopt their chips at meaningful production volumes. This final stage may prove harder than designing the chips themselves industrially.
Government policy created an opening for Indian semiconductor companies through CCTV market regulation. In April 2024, India introduced requirements mandating disclosure of critical component origins specifically. From April 1, 2026, non-certified imported cameras became prohibited from sale officially. Chinese brands including Hikvision and Dahua effectively exited the internet-connected CCTV market. This policy shift created demand for Indian chip alternatives in the surveillance sector.
However, policy-mandated demand differs substantially from genuine commercial orders and customer confidence. A government regulation can create an opening; it cannot guarantee customer adoption automatically. Prama and Mindgrove must navigate product qualification, performance validation and reliability certification carefully. The agreement remains preliminary until those steps are completed successfully going forward.
India’s semiconductor ambitions rest on a foundation built across two decades substantially. The India Semiconductor Mission, launched in 2021, mobilised ₹76,000 crore across multiple semiconductor ecosystem layers. The mission supported 24 chip design projects and provided design tools to 105 startups. Approximately 12 manufacturing projects worth over ₹1.64 trillion have been approved officially. Tata Electronics is constructing a ₹91,000 crore fabrication facility in Dholera with PSMC.
The India Semiconductor Mission 2.0, approved in July 2026, expanded support toward ₹1.27 trillion overall. This newer framework emphasises chip design, semiconductor equipment, materials, fabrication and talent development simultaneously. The policy framework demonstrates India’s commitment toward building an end-to-end semiconductor ecosystem comprehensively.
India accounts for approximately twenty percent of global semiconductor design engineers per government estimates. However, most Indian semiconductor professionals work for global companies including Intel, Qualcomm, Broadcom and Nvidia. India developed deep design capabilities serving international semiconductor companies rather than building domestic chip industries independently.
The transition from design capability to commercial chip production requires overcoming substantial structural barriers. Chip companies typically license pre-designed intellectual property blocks for standard functions including memory interfaces and connectivity. An Indian startup requires approximately $5 million in foundational IP costs compared with less than $2 million for Chinese companies. That cost disadvantage begins accumulating before a chip project even starts officially.
Electronic design automation software tools prove equally challenging for India’s semiconductor startups presently. These specialist software applications enable chip design, simulation, verification and manufacturing preparation processes. The global EDA market is dominated by Synopsys, Cadence and Siemens EDA exclusively. Commercial EDA tool suites require million-dollar investments creating additional barriers for cash-constrained startups. India has invested substantially in developing indigenous EDA capabilities; commercialization remains incomplete.
The geopolitical implications of semiconductor software dependence have become increasingly difficult to ignore strategically. The Trump administration’s 2025 restrictions on Chinese access to EDA tools demonstrated semiconductor software’s geopolitical weaponisation potential clearly. If Indian companies similarly faced export restrictions, the fledgling fabless industry could face operational disruptions. This strategic vulnerability reinforces India’s need for domestic EDA capability development urgently.
Netrasemi demonstrates that even technically sophisticated startups cannot eliminate external IP dependence completely. The company developed AI accelerators, signal-processing engines and video-compression technology independently and thoughtfully. Despite those efforts, Netrasemi still required advanced memory and interface intellectual property externally. The example illustrates fundamental constraints facing India’s semiconductor startups regardless of engineering excellence.
Indian startups face distinct disadvantages when negotiating with global semiconductor manufacturing foundries abroad. BigEndian required three months for memory-chip procurement; comparable US companies completed similar sourcing in approximately two weeks. BigEndian’s expected four-month prototype delivery extended to nearly seven months substantially. A component initially budgeted at $1.80 ultimately cost approximately $8 including currency depreciation, logistics and insurance.
Small order volumes create weak bargaining power across the semiconductor foundry ecosystem systematically. A startup ordering roughly 1,000 wafers monthly lacks “capacity and mindshare” compared with companies ordering 100,000 wafers. Foundries naturally prioritize larger customers and established semiconductor companies over individual startups. This scale problem makes Indian chips potentially slower, more expensive and harder to commercialize competitively.
The government is exploring aggregated demand strategies to strengthen Indian startups’ bargaining power. The approach involves consolidating orders from multiple Indian semiconductor companies toward larger combined volumes. That aggregation could potentially improve foundry priority, pricing and delivery timelines for participating companies. However, this strategy remains under development without established implementation frameworks yet.
Some Indian semiconductor founders are reversing conventional chip-development approaches by prioritizing customer engagement initially. HrdWyr approached potential customers before designing chips and secured audio brand boAt beforehand. The company is developing custom silicon for boAt’s wireless earbud charging cases specifically. Parag Naik, who previously co-founded and sold Saankhya Labs to Tejas Networks for ₹283.94 crore, takes similar approaches. Customer commitments help determine target pricing, expected volumes and unique technical requirements upfront.
Mindgrove positions its chips in the market middle, offering more features than commodity alternatives. The company claims approximately twenty to thirty percent cost advantages compared with comparable market-available chips. Netrasemi developed its A2000 vision chip for higher-end applications including number-plate and face recognition. HrdWyr’s Indus 1011 combines microcontroller and power-management functions within single silicon packages. These differentiation strategies only matter if they convert into actual customer purchase orders.
The fundamental obstacle remains a classic chicken-and-egg commercial dilemma between startup and OEM. Equipment manufacturers demand confidence that new semiconductor companies can deliver reliably at scale reliably. Startups need customer commitments and purchase volumes to build chips and achieve scale. Breaking this cycle requires either government intervention, proven customer relationships or significant private investment capital.
The government acknowledges supporting Indian semiconductor startups but rejects creating permanent protected markets domestically. Indian chips ultimately must compete globally on performance, cost and reliability benchmarks impartially. The CCTV market provided a policy opening for domestic chip adoption; similar approaches are being explored. The government is examining potential applicability in smart meters, IoT, industrial IoT and e-passports.
India has developed semiconductor design talent and built policy support frameworks supporting startup creation. Commercialisation remains the unresolved challenge requiring customer commitments, scale economics and competitive positioning simultaneously. For Indian semiconductor startups, each month involves substantial capital expenditure with uncertain returns on investment currently.
