Beyond Assembly: How India’s Mobility Boom Can Deepen Industrial Capability

Introduction: India’s “100 Products” Moment

On 12 May, DPIIT Secretary Amardeep Singh Bhatia said, at the CII Annual Business Summit 2026, that the central government is identifying around 100 products that the country still cannot manufacture in sufficient quantity despite possessing both domestic demand and a large industrial base. The list reportedly spans a wide range of industrial categories — from axles and bearings to electronic systems, industrial intermediates, machinery, and rare-earth-linked products.

At first glance, such reports may appear to be another routine addition to India’s long-running manufacturing discourse. But the significance of this development lies elsewhere.

For decades, much of India’s manufacturing conversation revolved around increasing production volumes, attracting investment, improving ease of doing business, or raising exports. What this latest policy thinking appears to recognise, however, is that the deeper challenge is not merely manufacturing output. It is manufacturing depth.

A country may assemble products at scale while still depending heavily on external ecosystems for:

- advanced components,

- critical materials,

- precision systems,

- industrial machinery,

- electronics,

- semiconductors,

- or high-value engineering inputs.

Industrial capability does not emerge merely because factories exist. It emerges when dense supplier ecosystems, engineering capabilities, tooling systems, R&D networks, logistics systems, financing structures, and technical labour pipelines evolve together over time.

The real question, therefore, is not simply:

“How can India manufacture more?”

It is:

“How can India use its existing and emerging demand strengths to deepen industrial capability across multiple upstream layers?”

And this is where India’s mobility economy becomes strategically important.

Because while several sectors may contribute to industrial expansion, few sectors possess the same combination of:

- scale,

- technological intensity,

- supply-chain complexity,

- employment generation,

- infrastructure linkages,

- and consumer demand visibility

  that the vehicle ecosystem does.

India today is not merely a growing car market. It is one of the world’s largest and most diverse mobility ecosystems:

- two-wheelers,

- three-wheelers,

- passenger vehicles,

- buses,

- logistics fleets,

- tractors,

- commercial vehicles,

- urban mobility systems,

- and increasingly electric mobility platforms.

If leveraged intelligently, this mobility economy could become far more than a consumption story. It could become the foundation for India’s next phase of industrial capability formation.

The Real Fuel: India’s Expanding Mobility Demand

Recent announcements by major vehicle manufacturers reveal an important shift in industrial psychology.

Despite global uncertainties ranging from freight disruptions and commodity volatility to geopolitical tensions in West Asia, all major Indian automotive companies have announced capital expenditure, capacity expansion, and new product pipelines.

This matters because corporations do not commit large-scale industrial capital based on temporary optimism alone. Such investments usually reflect confidence in medium-term demand visibility.

And importantly, this demand is broad-based.

India’s mobility growth is not confined to a single segment or income category. Demand exists across:

- entry-level commuter bikes and scooters,

- premium bikes and scooters,

- small cars,

- sedans,

- SUVs,

- electric vehicles,

- delivery fleets,

- e-rickshaws,

- e-cab fleets,

- e-bus fleets 

This breadth is strategically significant because industrial ecosystems deepen most effectively when demand is:

- large,

- sustained,

- and diversified.

The vehicle industry is uniquely capable of generating such layered demand.

A country with millions of annual two-wheeler sales creates opportunities for:

- battery suppliers,

- motor manufacturers,

- casting firms,

- electronics makers,

- software providers,

- and service ecosystems.

Commercial vehicle growth stimulates:

- logistics,

- telematics,

- fuel systems,

- fleet management software,

- industrial maintenance,

- and highway infrastructure.

Passenger vehicle growth expands:

- precision manufacturing,

- financing ecosystems,

- electronics integration,

- and supplier sophistication.

In other words, mobility demand does not simply increase consumption. It creates industrial-scale market formation.

And this may be the most important economic foundation for India’s future manufacturing ambitions.

Historically, one of the reasons industrial deepening remained uneven in India was the absence of sufficiently broad and predictable domestic demand. Companies often hesitated to make long-horizon investments in supplier ecosystems, tooling, R&D, or localisation because:

- demand visibility was uncertain,

- infrastructure was fragmented,

- and market integration 

remained incomplete.

But today, several structural factors are changing simultaneously:

- rising incomes,

- formalisation,

- expanding logistics networks,

- digital financing,

- highway development,

- e-commerce expansion,

- and urbanisation.

Together, these are creating a more integrated national mobility market.

And once companies begin fearing capacity shortages more than weak demand, industrial behaviour changes. Companies then become more willing to:

- localise supply chains,

- invest in suppliers,

- fund tooling systems,

- deepen engineering capability,

- and support ecosystem development.

This is why the current mobility expansion should not be viewed narrowly as an automotive boom. It, I argue, represents the emergence of a large domestic industrial platform.

The EV Transition Changes the Industrial Equation

The rise of electric vehicles makes this opportunity even more consequential.

For years, EV discussions in India were framed primarily through:

- climate goals,

- subsidies,

- or consumer adoption.

But EVs are far more than an alternative propulsion system. They partially restructure the architecture of the automotive industry itself.

Traditional internal combustion engine (ICE) vehicles derive much of their industrial complexity from:

- engines,

- transmissions,

- combustion optimisation,

- fuel injection systems,

- and mechanical engineering refinement.

Electric vehicles shift value toward a different set of capabilities:

- batteries,

- motors,

- power electronics,

- semiconductors,

- thermal systems,

- battery management systems,

- embedded software,

- and control architectures.

This matters because technological transitions occasionally create opportunities for industrial repositioning.

In mature ICE ecosystems, incumbency advantages are enormous. Decades of accumulated expertise, patents, manufacturing optimisation, and supplier networks create high barriers to entry.

But EV transitions partially reset those hierarchies.

Countries that may not dominate traditional combustion technologies can still develop meaningful capabilities in:

- power electronics,

- software-defined systems,

- battery ecosystems,

- electric drivetrains,

- or embedded intelligence systems.

This is where India’s existing strengths become strategically relevant.

India already possesses:

- a large software talent base,

- embedded systems capability,

- IT engineering depth,

- electronics design expertise,

- and a growing AI ecosystem.

As vehicles become more software-intensive and electronics-heavy, the gap between digital capability and industrial capability would begin to narrow.

The automobile would increasingly become:

an electronics-and-software platform on wheels.

That creates a convergence opportunity between:

India’s digital strengths

and

its manufacturing ambitions.

The rapid rise in EV demand further strengthens this possibility.

Recent reports indicate that geopolitical instability and fuel-price concerns are accelerating EV adoption. Consumers increasingly view electric mobility not merely as a climate-conscious purchase, but as protection against petrol-price volatility and energy insecurity.

This changes the psychology of EV adoption.

When EVs become associated with:

- household resilience,

- predictable operating costs,

- and energy-security concerns,

their demand base would become broader and potentially more durable.

And this demand would not confined to passenger cars alone.

India’s electric mobility transition spans:

- e-scooters,

- e-bikes

- e-rickshaws,

- delivery fleets,

- e-cab fleets,

- e-bus fleets 

- e-SCVs

- and increasingly passenger vehicles.

This diversity is important because supplier ecosystems rarely emerge all at once at the highest technological frontier.

They evolve through layered scaling pathways.

A country can first develop capabilities in:

- low-cost motors,

- charging systems,

- power management,

- fleet software,

- battery assembly,

- or electric two-wheelers,

before eventually moving into more sophisticated domains such as:

- advanced battery chemistry,

- automotive semiconductors,

- ADAS systems,

- or intelligent mobility platforms.

This layered industrial progression is one of India’s major advantages.

Regulation as Industrial Policy by Other Means

Another major shift underway in India’s automotive ecosystem is regulatory escalation.

Upcoming:

- CAFE III fuel-efficiency norms,

- stricter emission standards,

- and mandatory ADAS requirements

are likely to reshape the industrial structure of the sector over the next decade.

Importantly, these regulations do not merely affect automakers. They alter the economics of the entire supplier ecosystem.

Under earlier automotive cycles, growth depended largely on vehicle volumes.

The emerging cycle is different.

Growth will increasingly depend on:

“content per vehicle.”

As regulations become stricter, every vehicle requires more:

- sensors,

- electronic control units,

- lightweight materials,

- software,

- hybrid systems,

- safety systems,

- embedded intelligence,

- and efficiency technologies.

This changes industrial incentives dramatically.

Even if vehicle volumes grow moderately, the technological value embedded within each vehicle would rise sharply.

For suppliers, this creates structural opportunities.

For the wider economy, it creates pressure for industrial upgrading.

This is particularly important because industrial sophistication rarely emerges automatically through market demand alone. Regulation often acts as:

- a technological forcing mechanism,

- a coordination device,

- and a market-shaping instrument.

Europe, Japan, South Korea, and China all used varying forms of regulatory escalation to push industries toward greater sophistication.

India may now be entering a similar phase in mobility.

CAFE III norms will likely push automakers toward:

- lightweight materials,

- hybrid technologies,

- efficient drivetrains,

- and software-managed optimisation.

ADAS requirements will accelerate demand for:

- radar systems,

- cameras,

- sensors,

- machine vision,

- embedded AI,

- and real-time control systems.

This is strategically significant because many of these technologies overlap with broader industrial and technological ecosystems:

- electronics,

- semiconductors,

- AI,

- embedded computing,

- industrial automation,

- and advanced manufacturing.

In other words, automotive regulation may indirectly accelerate India’s wider electronics and industrial technology ecosystem.

Vehicles as Ecosystem Integrators

One of the biggest mistakes in industrial policy is treating the automobile sector as merely a consumer industry.

In reality, mobility systems integrate multiple sectors simultaneously.

Few industries touch as many layers of an economy as vehicles do.

Materials and Components

Every mobility ecosystem depends on deep materials capability:

- speciality steels,

- aluminium alloys,

- advanced polymers,

- composites,

- magnets,

- semiconductors,

- and industrial ceramics.

EV transitions increase demand for:

- lightweighting,

- thermal materials,

- high-performance magnets,

- and battery-related materials.

As regulations tighten, the quality and sophistication requirements for these materials also rise.

This creates opportunities not only for large firms, but also for MSMEs and specialised suppliers.

If India succeeds in building stronger domestic materials ecosystems, the benefits will extend far beyond automobiles into:

- aerospace,

- defence,

- electronics,

- renewable energy,

- and industrial machinery.

Software and Electronics

Perhaps the most transformative shift underway is the increasing software intensity of mobility systems.

Modern vehicles increasingly depend on:

- embedded software,

- sensors,

- control systems,

- telematics,

- predictive diagnostics,

- machine vision,

- AI-assisted systems,

- and connectivity platforms.

This convergence between mobility and software creates a major opportunity for India.

For decades, India’s software industry remained relatively detached from large-scale industrial production. Vehicles may now become one of the first major sectors where:

digital capability

and

manufacturing capability

begin deeply integrating.

This could stimulate:

- automotive software ecosystems,

- embedded AI systems,

- industrial automation,

- fleet intelligence platforms,

- and advanced manufacturing software.

The implications extend well beyond automobiles.

Batteries and Energy Systems

India’s mobility transition is unlikely to follow a singular technological pathway.

Given the country’s scale and diversity, the future may involve:

- EVs,

- hybrids,

- ethanol blending,

- biofuels,

- CNG,

- LNG,

- and potentially hydrogen for heavy mobility applications.

This creates opportunities across:

- agriculture,

- chemicals,

- refining,

- energy storage,

- and distributed energy systems.

Battery ecosystems themselves represent a vast industrial opportunity:

- cell manufacturing,

- battery assembly,

- battery management systems,

- recycling,

- mineral recovery,

- and energy-management software.

Battery recycling may become particularly important in the long term because it links:

- industrial sustainability,

- resource security,

- and domestic materials recovery.

Industrial Clusters

Industrial ecosystems rarely deepen in isolation.

They usually emerge through clusters where:

- suppliers,

- manufacturers,

- logistics firms,

- universities,

- testing labs,

- financing institutions,

- and skilled labour

  co-locate and interact repeatedly.

India’s mobility transition creates opportunities for specialised industrial corridors and cluster-based development.

Different states could potentially specialise in:

- battery ecosystems,

- power electronics,

- automotive software,

- lightweight materials,

- EV components,

- or recycling systems.

Such clustering can accelerate:

- supplier learning,

- innovation diffusion,

- skill formation,

- and cost efficiencies.

Labour Demand and Labour Supply

The mobility transition is also a labour transition.

It will create demand across multiple skill levels:

- machinists,

- industrial electricians,

- charging technicians,

- AI engineers,

- battery specialists,

- maintenance workers,

- robotics operators,

- recyclers,

- and embedded software engineers.

Importantly, this creates opportunities for both:

- high-skill employment,

  and

- broad-base technical employment.

But this transition cannot succeed automatically.

India will require:

- vocational training systems,

- enterprise-linked skilling,

- certification ecosystems,

- apprenticeship pipelines,

- and institutional coordination.

Without strong labour pipelines, technological upgrading may remain shallow.

Finance

Mobility ecosystems also create financial ecosystems.

Vehicle financing,

fleet financing,

charging infrastructure financing,

supplier financing,

and manufacturing finance,

-- all become important.

As vehicles become more technologically sophisticated, financing systems must evolve to support:

- suppliers,

- MSMEs,

- battery ecosystems,

- and infrastructure deployment.

The financial system therefore becomes an industrial policy instrument in its own right.

Aftersales and Circular Economy

A mature mobility ecosystem does not end at manufacturing.

It includes:

- maintenance,

- servicing,

- spare systems,

- remanufacturing,

- recycling,

- dismantling,

- and secondary materials recovery.

This “afterlife economy” can become a major employment generator while also improving:

- sustainability,

- material efficiency,

- and resource security.

Battery recycling alone may become strategically critical in the EV era.

India’s Unique Advantage: Mobility Diversity at Scale

India’s mobility ecosystem differs fundamentally from many advanced economies.

The country is not simply a passenger car market.

It is simultaneously:

- one of the world’s largest two-wheeler markets,

- a major three-wheeler ecosystem,

- a rapidly growing logistics market,

- a large agricultural mobility economy,

- and an increasingly important EV ecosystem.

This diversity creates layered industrial opportunities.

Not every firm must immediately compete at the highest technological frontier.

Capabilities can emerge progressively through:

- scooters,

- motorcycles,

- e-rickshaws,

- fleet electrification,

- delivery mobility,

- and utility vehicles.

This would lower the entry barrier for:

- MSMEs,

- regional manufacturers,

- and mid-sized suppliers.

It would also create opportunities for distributed industrialisation beyond a few metropolitan centres.

India’s mobility diversity may therefore become one of its greatest industrial advantages.

The Risk of Shallow Assembly

However, domestic demand alone does not guarantee industrial sovereignty.

India could still end up assembling:

- EVs,

- advanced vehicles,

- and intelligent mobility systems

  while importing many of the highest-value components:

- semiconductors,

- advanced batteries,

- sensors,

- magnets,

- power electronics,

- and software architectures.

That would reproduce a familiar pattern:

high production volumes,

but limited upstream value capture.

This is why industrial deepening must be intentional.

Supplier ecosystems,

materials ecosystems,

R&D systems,

and manufacturing capabilities

-- must be systematically cultivated.

Otherwise, India risks becoming:

a large market,

without becoming a deeply capable industrial ecosystem.

Toward a Mobility-Centred Industrial Strategy

India’s mobility transition should therefore not be treated merely as an automotive story.

It should be viewed as:

- an industrial strategy,

- a technology strategy,

- an energy-security strategy,

- and an employment strategy simultaneously.

The country already possesses several ingredients:

- large domestic demand,

- diversified mobility needs,

- software capability,

- entrepreneurial depth,

- engineering talent,

- and expanding infrastructure.

What is required now is strategic coordination.

This should involve:

- capability mapping,

- supplier-development missions,

- mobility-tech clusters,

- industrial R&D ecosystems,

- skilling pipelines,

- recycling systems,

- and deeper coordination among government, industry, finance, and academia.

The objective should not merely be:

“more vehicles.”

The objective should be:

greater industrial depth.

Because the real opportunity before India is not simply to become a large mobility market.

It is to use one of the world’s largest and fastest-growing mobility ecosystems to broaden and deepen national industrial capability.