India’s Telecom Infrastructure Requires IP-Driven Semiconductor Strategy, Says Cadence

Source: ETTelecom interview with Alok Jain, Managing Director of Cadence India, published June 16, 2026.

India’s ambitious telecom infrastructure expansion, including 5G Advanced, 6G R&D, and nationwide fiberization, faces a critical dependency: the semiconductors that power network equipment. In a significant industry statement, Alok Jain, Managing Director of Cadence India, a leading Electronic Design Automation (EDA) software provider, has called for a “stronger focus on intellectual property (IP) and product design” to fortify India’s position in the global semiconductor value chain. Jain’s analysis, delivered to ETTelecom, underscores that India’s current strength lies in the “middle layer”—the design services and engineering talent—but must evolve towards higher-value IP creation to achieve strategic autonomy and supply chain resilience for its critical telecom networks.

The Technical Imperative: From Design Services to Core IP Creation

Cadence’s Jain frames the semiconductor challenge for telecom operators and equipment manufacturers with technical precision. The global telecom equipment market—dominated by vendors like Ericsson, Nokia, Huawei, and Samsung—relies on complex System-on-Chip (SoC) designs integrating baseband processing, RF transceivers, network acceleration, and AI inferencing. These SoCs are built using semiconductor IP blocks (e.g., Arm cores, DSP units, SerDes PHYs) and designed with EDA tools from Cadence, Synopsys, and Siemens EDA.

“India today is a powerhouse for design services,” Jain states, referencing the vast engineering workforce employed by global semiconductor companies and design houses within the country. “We excel in implementation—taking a design specification and turning it into a manufacturable layout.” However, he identifies the gap: “The high-value creation happens in the architecture definition and the development of proprietary, reusable IP cores. This is where India needs to scale.”

For telecom infrastructure, this IP gap has direct operational consequences. Network equipment—from 5G Open RAN Radio Units (RUs) and Distributed Units (DUs) to core routers and optical transport gear—requires specialized silicon. Without domestic IP capabilities, Indian telecom operators (Reliance Jio, Bharti Airtel, Vodafone Idea) and aspiring domestic OEMs remain reliant on imported components, exposing them to geopolitical supply chain shocks and currency volatility. Jain emphasizes that building a domestic IP portfolio around telecom-specific needs—such as power-efficient millimeter-wave beamformers, optical networking DSPs, or AI-powered network management accelerators—could reduce this dependency.

The role of EDA tools is foundational. Cadence, Synopsys, and others provide the software environment where this IP is created, simulated, and validated. Jain points to Cadence’s growing R&D investment in India as a sign of the market’s potential, but stresses that ecosystem development requires parallel investments in chip fabrication (fabs) and advanced packaging—areas where India’s $10 billion Semiconductor Mission is making targeted, albeit gradual, progress.

Industry Impact: Reshaping Telecom Equipment Supply Chains and Operator Strategy

Jain’s call for an IP-centric semiconductor strategy carries profound implications for telecom industry stakeholders far beyond India’s borders.

For Global Telecom Equipment Vendors (Nokia, Ericsson, etc.): India’s evolution from a services hub to an IP creation hub could reshape global R&D footprints. These vendors already operate large design centers in India. A stronger local IP ecosystem could lead to more core chip development being conducted in-region, potentially creating more tailored solutions for price-sensitive, high-volume markets like India and Southeast Asia. It also presents a diversification opportunity away from traditional supply chains.

For Indian Telecom Operators (Jio, Airtel): The strategic insight is clear. Operators investing billions in 5G and fiber networks are at the mercy of the equipment cost structure, which is heavily influenced by semiconductor content. Jio’s parent company, Reliance Industries, has already made strategic investments in chip design. A domestic capability in telecom-specific silicon IP could, over the long term, enable more affordable, customizable, and secure network gear. This aligns with Jio’s ambitions to export its 5G stack and Airtel’s focus on network-as-a-service.

For Network Infrastructure Investors: The viability of India’s massive digital infrastructure build-out hinges on sustainable cost models. Semiconductor IP development is a high-risk, high-reward, long-term play. Investors must assess whether the Indian state and private sector can commit to the decade-long horizon required to build a competitive semiconductor IP business, which stands in contrast to the quicker returns from tower or fiber deployment.

For the Global Semiconductor Landscape: India represents one of the largest potential new pools of semiconductor design talent and consumption. A successful push into IP creation would introduce new competitors and partners in the fiercely competitive chip design space, potentially affecting IP licensing models and global talent flows.

Regional Implications: A Blueprint for Africa, MENA, and Emerging Telecom Markets

India’s semiconductor journey is being closely watched by other high-growth telecom markets in Africa and the Middle East. These regions share similar challenges: rapid mobile data adoption, ambitious national broadband plans, and a desire to reduce import dependence while fostering digital economies.

Jain’s “middle-layer” strategy offers a potential roadmap. Nations like Saudi Arabia, the UAE, Egypt, Kenya, and Nigeria may lack the capital for leading-edge semiconductor fabs, but they can invest in cultivating design talent and fostering IP development in niche areas relevant to their telecom needs. For instance, IP for low-power, wide-area IoT connectivity chips or cost-optimized fixed wireless access (FWA) modems could find immediate application in these markets.

The African Continental Free Trade Area (AfCFTA) could amplify this effect. A collaborative approach to telecom semiconductor IP across multiple African nations could aggregate demand, making regional design initiatives more viable. This mirrors India’s own advantage: a massive domestic market that can anchor initial IP development before aiming for global export.

Furthermore, the geopolitics of telecom infrastructure adds urgency. As Western and Chinese tech spheres diverge, regions like Africa and MENA seek a “third way” to ensure resilient, non-aligned supply chains. Developing in-region IP capabilities, even if focused on specific telecom applications, contributes to that strategic autonomy. Partnerships between Indian semiconductor IP firms and African telecom operators or governments could emerge as a distinct model, challenging the traditional vendor-client dynamic.

Forward-Looking Analysis: The Telecom Sector’s Silicon Crucible

Alok Jain’s commentary arrives at an inflection point. The telecom industry’s future is inextricably linked to advancements in silicon: 6G will demand terahertz RFICs and ultra-low-latency compute fabrics; AI-native networks will require heterogeneous chiplets; and the green transition will necessitate radical improvements in network power efficiency, driven at the chip level.

India’s choice is not whether to participate in this semiconductor-driven future, but at which level of the value chain it will compete. The current path of providing world-class design services is secure but offers limited strategic leverage. The aspirational path of becoming a net creator of semiconductor IP—particularly for telecommunications—promises greater control over the destiny of its digital infrastructure and a seat at the table in defining next-generation network technologies.

For global telecom observers, the key metrics to watch will be the flow of venture capital into Indian semiconductor IP startups, the complexity of SoC designs originating from Indian engineering teams, and the formation of strategic partnerships between Indian design houses and global telecom giants. The success or failure of this IP-centric push will reverberate through network equipment bills of materials, operator capex plans, and the geopolitical landscape of critical infrastructure for decades to come. India’s telecom future, and by extension a model for other emerging markets, is being written not just in fiber trenches and on cell towers, but in the lines of code that define the silicon at the heart of the network.