India’s new-age manufacturers to benefit from $3 trillion global AI investment cycle: Avendus Capital

An AI infrastructure investment cycle is the period in which large sums flow into the physical systems needed to support expanding AI use. The article connects this cycle with manufacturing because AI growth increases demand for semiconductors, energy infrastructure, automation, and specialised industrial materials. It also overlaps with defence and space investment.

For example, India could supply chip design, packaging, testing, and specialised materials as semiconductor consumption rises. Domestic manufacturers could also build batteries, solar equipment, electrolyser stacks, robots, and advanced materials. The key mechanism is demand: global AI investment creates orders, while India’s domestic market, engineering talent, and policy support help companies develop local capacity.

The opportunity is large but selective. Avendus Capital says India’s right to win appears in specific segments, not across every manufacturing area. The 2027–28 period may show whether approved projects become production, helping reduce imports and create globally competitive businesses.

The projected investment cycle is valued at $3 trillion globally. This is not a completed investment total. Avendus Capital says more than 80% of the amount has still to be deployed, leaving a substantial future pipeline for companies that can supply the required industrial systems and materials.

The opportunity reaches beyond software. The article links the cycle to rising demand for energy infrastructure, semiconductors, robotics, advanced materials, and other manufacturing capabilities. India could benefit by serving its own expanding market while also building products and expertise for global customers.

The timing matters because investment must become operating capacity. The report identifies 2027–28 as a critical commercialisation period, when companies are expected to move from policy support and project approvals toward production. India’s engineering talent, domestic demand, and policy framework could help capture part of the remaining investment.

Avendus Capital identifies six sectors that could drive India’s next industrial-growth phase. They are defence and aerospace, space technology, robotics and automation, semiconductors, energy transition, and advanced materials. These fields combine rising demand with opportunities to build capabilities inside India.

The scale of growth is already visible in several examples. Semiconductor consumption is projected to rise from $49.5 billion in 2025 to $106.5 billion by 2030. India’s space economy could grow from approximately $13 billion in 2025 to $44 billion by 2033. The robotics market could nearly quadruple to $4.6 billion by 2030.

These are opportunities, not guarantees. The report says India’s right to win appears in select segments. Companies must convert policy support, approvals, engineering skills, and domestic demand into commercially viable production while reducing import dependence.

Semiconductors, energy infrastructure, and robotics are especially important because they support different physical needs of AI expansion. Chips provide the computing foundation. Energy infrastructure supplies the power required by expanding digital and industrial systems. Robotics helps factories produce equipment at scale and supports wider automation.

The article gives clear growth signals. India’s semiconductor consumption is projected to rise from $49.5 billion in 2025 to $106.5 billion by 2030. The robotics market could grow nearly fourfold to $4.6 billion by 2030, supported by adoption and import substitution. Rising global AI investment also increases demand for energy infrastructure.

These sectors therefore create linked manufacturing opportunities. Local firms could design, package, and test chips, build specialised materials, and supply robots or energy equipment. Their success will depend on moving from policy support and approvals to commercially viable production, especially around 2027–28.

The 2027–28 period matters because India’s manufacturing opportunity must pass from preparation into execution. Policies can encourage investment, and project approvals can establish plans, but neither automatically creates products or revenue. Commercialisation means companies begin producing at a viable scale.

The article describes a transition from policy support and project approvals toward production. A semiconductor project, battery plant, solar facility, or robotics business would need to turn its approved plans into operating capacity. That shift is the key mechanism connecting investment with real industrial growth and reduced import dependence.

The period will test India’s ability to build globally competitive capabilities. Strong domestic demand, engineering talent, and policy support provide advantages, but the report warns that India’s right to win is limited to select segments. The outcome will show which opportunities become commercially viable manufacturing businesses.

Reducing import dependence requires more than assembling finished products. India would need domestic capabilities across the stages that turn raw inputs and designs into usable technologies. The article points to chip design, packaging, testing, specialised materials, solar manufacturing, battery cells, electrolysers, motors, and recycling.

The clean-energy example shows the mechanism. By the end of the decade, India could establish an integrated solar chain from ingots to modules, build several gigawatt-hour-scale battery cell plants, and commercially produce indigenous electrolyser stacks and rare-earth-free motors. In advanced materials, recycling is expected to scale first, followed by battery materials and possibly rare-earth magnets.

Achieving this would require companies to move projects into production, supported by domestic demand, engineering talent, and policy. It would also require local capacity in heavily import-dependent areas. The report presents these as opportunities, while warning that commercial viability remains the central test.

In established engineering terms, a semiconductor is a material whose electrical conductivity can be controlled, allowing it to form electronic components and integrated circuits. A chip is a compact circuit built from these components. Chips perform calculations, store or move information, and control machines. The source article highlights semiconductors as a major manufacturing opportunity, though it does not provide this definition.

AI systems depend on chips to process data and run models. Modern factories use them in control systems and robots. Vehicles, defence equipment, and energy technologies also rely on electronic processing and control. This makes chip supply important across many industries, not only computing. India could participate through chip design, packaging, testing, and specialised materials.

India’s semiconductor consumption is projected to rise from $49.5 billion in 2025 to $106.5 billion by 2030. That growth could support domestic capacity, reduce imports, and create globally competitive manufacturing capabilities if projects reach production.