EV Batteries Made in India: The Atmanirbhar Bharat Push

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EV Batteries Made in India: The Atmanirbhar Bharat Push

Introduction

The shift to electric vehicles (EVs) is underway globally, and India is keen to be far more than a mere importer of EV technology. Within that ambition lies a critical component: the battery. Simply put, if the battery pack is imported, the cost and dependency remain high. Localising battery manufacturing becomes a strategic lever. India is now aggressively setting up “gigafactories” for lithium-ion cells, battery packs and related components — with major investments from companies such as Reliance Industries, Ola Electric, Tata Group, Amara Raja Batteries and others. The goal: cheaper EVs, reduced import dependence, stronger supply chains, and support for the government’s self-reliance push under the banner of Atmanirbhar Bharat Abhiyan.

This blog unpacks why this is happening now, what has been achieved to date, what the major players are doing, the supply-chain and technology challenges, and what the implications are for consumers, industry and India’s economy.

Why battery localisation matters

The battery is the heart of an EV

In an electric vehicle, unlike a conventional internal-combustion vehicle, the battery pack is arguably the single most expensive and strategically important component. It determines cost, driving range, charging time, weight, safety, lifetime and ultimately the consumer value proposition. For India to reduce EV prices, improve affordability and local adoption — it must address the battery cost, scale and supply chain.

The import dependence challenge

Today, many EV battery cell/modules/packs for India are either imported fully or rely heavily on imported components. That makes the cost higher, exposes the industry to international supply shocks, exchange-rate risk, logistics delays and technology lock-in.
By contrast, local manufacturing of cells and packs means:

Reduced logistics and import overhead
Better control of costs and margin flows
Local jobs, skills and investment
Stronger resilience of the supply chain (raw materials, manufacturing, recycling)
More bargaining power and possibly export opportunity in the future

Aligning with Atmanirbhar Bharat

The Indian government’s self-reliant vision (Atmanirbhar Bharat) emphasises building domestic manufacturing capabilities, reducing strategic dependencies and capturing larger value-chains within India. The battery ecosystem is a perfect candidate for this push — because it spans upstream (material mining, processing), mid-stream (cells, modules), and downstream (packs, recycling). Local battery production speaks to sovereignty, economic development and technological ambition.

Cheaper EVs via local batteries

One of the key takeaways is this: local batteries will mean cheaper EVs in the future. With cells and packs manufactured in India, the cost base can be lower, scale efficiencies can kick in, and as production ramps up, per-unit costs fall. That makes EVs more accessible to Indian consumers and accelerates the shift away from internal-combustion vehicles (ICVs).

India’s current status and scale of ambitions

What are gigafactories?

The term “gigafactory” is used to describe large-scale battery manufacturing facilities capable of producing gigawatt-hours (GWh) of cells or packs in a year. In India’s context, we are seeing announcements of factories with capacities of tens of GWh, which is significant.

Key announcements and projects

Amara Raja Batteries has announced a giga-factory in Mahbubnagar district, Telangana, targeting up to 16 GWh of lithium-ion battery cell capacity and about 5 GWh of battery pack capacity. Outlook Business+3ETAuto.com+3The Financial Express+3
Tata Agarata Energy Storage Solutions (Tata’s battery cell manufacturing arm) signed an MoU in Gujarat to build a lithium-ion cell gigafactory with estimated initial investment of around ₹13,000 crore (~US$1.6 billion) and production capacity of ~20 GWh. The Times of India+1
Altmin Private Limited has unveiled India’s first LFP-cathode giga-factory with initial capacity about 8 GWh, investment around ₹750 crore, and plans to expand further. ETManufacturing.in+1
Ola Electric is setting up a cell manufacturing gigafactory in Krishnagiri, Tamil Nadu for 4680-format cylindrical cells, starting with ~1 GWh and expandable to ~20 GWh. Emerging Technology News+1
Reliance Industries, via its large ‎Dhirubhai Ambani Green Energy Giga Complex in Jamnagar, Gujarat, is building a fully integrated renewable and battery‐manufacturing complex that includes cell-to-pack production. Wikipedia

How big is this?

To put things in perspective, some of these capacity numbers (10–20 GWh or more) are meaningful. For example, a modest EV battery pack might be ~50 kWh; producing 20 GWh/yr corresponds in simple arithmetic to 400,000 such packs (20,000 MWh ÷ 50 kWh = 400,000) in one year. With larger EVs (e.g., 75 kWh) or other formats, the number is different, but the scale is non-trivial.

As one analysis puts it: India is becoming an “emerging manufacturing hub for EV battery” with major investments in cells, packs and material supply chain. Stellarix+1

Timeline and reality check

Many of these projects are announced, some are under construction, and a few will start production in the next couple of years. For example: Amara Raja expects commercial production by end of 2025. The Financial Express+1 The ramp up to full scale will take time, but the pipeline is visible.

Key Players & Their Strategies

Amara Raja Batteries

Amara Raja is one of India’s large battery makers (traditionally lead-acid, inverter batteries). It is now making a major pivot into lithium-ion cells and packs. Key facts:

Their giga-factory in Mahbubnagar district (Telangana) will handle two chemistries: NMC (Nickel-Manganese-Cobalt) as well as LFP (Lithium-Iron-Phosphate). The Financial Express+1
They will have two formats: cylindrical and prismatic cells. ETAuto.com
They emphasize that going large (“giga scale factories with an ecosystem”) is essential. ETAuto.com+1
The plan is to integrate cells, battery packs, possibly research & development, and build local manufacturing.

Tata Group

The Tata Group’s involvement via Tata Agarata (or Tata Agaratas as some sources call) is noteworthy because this is cell manufacturing — which is deeper in the value chain than just battery pack or module assembly. Facts:

MoU signed with Gujarat state government for a lithium‐ion cell manufacturing gigafactory. The Times of India+1
Initial investment estimated at ~₹13,000 crore, capacity ~20 GWh, generation of ~13,000 direct and indirect jobs. The Times of India
This indicates Tata’s intent to be big in the EV battery value chain, not just vehicle manufacturing.

Ola Electric

Ola, known for its EV scooters, is aspiring to make the cell manufacturing in-house:

Setting up cell manufacturing facility in Krishnagiri district, Tamil Nadu for 4680 format cylindrical cells. Emerging Technology News+1
Starting capacity ~1 GWh (Phase 1a), expandable to ~20 GWh. Emerging Technology News
The value proposition: reduce dependency on imported cells/packs; have vertical integration; lower cost; control technology.

Reliance Industries

Reliance is building a massive “Green Energy Giga Complex” in Jamnagar, Gujarat which is more than just battery manufacturing — it spans solar, hydrogen, renewables and battery cells. Facts:

According to Wikipedia, the first phase (2021-2024) is a 20 GW solar module factory and 5 GWh annual cell‐to‐pack manufacturing facility in 2024. The target later rises to ~50 GWh and 100 GWh annual capacity by 2027-2030. Wikipedia
This shows a very ambitious scale; Reliance sees battery manufacturing as part of its new energy business.

Material & component players

It’s not just cell/pack manufacturers. Upstream: companies such as Altmin (cathode material manufacturer) are setting up facilities to produce cathode active materials (CAM) which are essential for lithium-ion batteries. For example:

Altmin’s LFP cathode gigafactory, initial capacity ~8 GWh, investment ~₹750 crore, located adjacent to Amara Raja’s plant. ETManufacturing.in+1
This kind of vertical integration—material manufacturing, cell manufacturing, pack assembly—helps strengthen the entire domestic battery supply chain.

What does this localisation entail? The full value chain

To understand the magnitude of the “local battery push”, it helps to go through the full value chain of battery manufacturing for EVs and where India’s focus is.

Upstream: raw materials & precursor

Lithium, cobalt, nickel, manganese, graphite, etc., are raw materials for lithium-ion batteries. Mining, refining, processing these is the first step.
India has some discoveries (for example lithium in Rajasthan) and interest in localising some material supply. But this is still a weak link relative to major global suppliers.
The domestic sourcing of materials reduces import dependency and may reduce cost volatility.

Mid-stream: cell manufacturing

Cells are the fundamental unit — they are the smallest building block. They could be cylindrical (e.g., 4680 size), prismatic (flat/rectangular), pouch.
India is building cell manufacturing capacity — for example Tata’s cell factory, Amara Raja’s cell plans, Ola’s 4680 cells.
The cell chemistry is important: NMC provides high energy density, LFP offers lower cost and better safety. Both are being targeted.
Cell manufacturing requires advanced equipment, high yields, quality control, significant CAPEX and skilled workforce.

Down-stream: module and pack assembly

Cells get assembled into modules, then into battery packs with battery management system (BMS), cooling, safety systems, structural mounting.
Many Indian players already assemble packs or import cells then assemble packs. The next step is full cell manufacturing + pack assembly domestically.

Supporting ecosystem: materials, components, recycling

Besides cells and packs, there is need for cathode & anode materials, separators, electrolyte, battery management systems, cooling, safety, recycling of end-of-life batteries.
For example, Altmin is building a cathode material factory. Recycling will be increasingly important for sustainability and supply of secondary materials.
Additionally, logistics, skilled workforce, quality assurance labs, and testing centres are part of the ecosystem.

Infrastructure & scale

To be globally competitive, scale matters. “Giga-scale” means tens of GWh per year rather than just a few GWh. Higher scale brings lower unit cost, improved efficiencies, better ROI.
The infrastructure (power supply, clean rooms, equipment imports, automation) is significant.
Also, localisation may reduce logistics cost, import duties, and supply chain complexity.

Policy and government support

Production-Linked Incentive (PLI) scheme for ACC (Advanced Chemistry Cells)

The Indian government launched an incentive scheme to encourage domestic manufacturing of advanced chemistry cells (ACC) for batteries. This provides financial incentives for companies that set up manufacturing in India.
One news report notes that Reliance sought an extension under the PLI scheme, indicating the government linking timelines, subsidies and compliance. Reuters

State Government partnerships & MoUs

States are actively partnering with manufacturing firms, offering land, incentives, power, infrastructure. For example, Gujarat signed with Tata for the cell gigafactory. (see above)
This state-level facilitation is critical as battery manufacturing demands large land parcels, reliable power, logistics and ecosystem support.

Strategic importance & overall agenda

Battery manufacturing aligns with India’s larger goals:

Increasing EV penetration (reducing oil dependence, emissions).
Strengthening manufacturing base and jobs.
Reducing strategic imports (especially batteries, of which a large share comes from China and Korea).
Building export capability in future.

Challenges noted by policymakers

Despite the momentum, policymakers recognise significant risks and constraints. For example, a report by NITI Aayog flagged: raw material availability, financing, technology risk, lack of precedent in India for cell manufacturing, and workforce/skill gaps. NITI AAYOG
Thus, while policy support is strong, execution will require overcoming multiple hurdles.

What are the benefits if this succeeds?

Cost reduction & cheaper EVs

If batteries are made locally at scale, costs can come down due to: lower import cost, reduced logistics, higher manufacturing yields, supply-chain proximity. Lower battery cost translates into lower EV cost — making EVs more accessible to Indian consumers. This is one of the key “takeaways”.

Supply-chain security & strategic autonomy

A domestic battery manufacturing ecosystem reduces dependence on foreign suppliers (especially from China/Korea). It enhances strategic autonomy in the electric mobility domain.

Job creation & industrial development

These large factories create direct and indirect employment (in manufacturing, R&D, component suppliers, logistics) and help build a more mature industrial base in battery technology.

Export potential

Once scale and cost parity are achieved, India could become an export hub for battery cells or packs. Given global demand for EVs and storage, Indian manufacturing could tap international markets.

Accelerated EV adoption

With lower battery cost and better local supply, the EV ecosystem (vehicles, charging infrastructure, after-sales) gains rhythm. Faster EV adoption helps India reduce emissions, fossil-fuel import dependency, and align with climate goals.

What are the challenges and headwinds?

Technology & manufacturing complexity

Manufacturing lithium-ion cells is significantly more complex than assembling battery packs or importing cells. Quality, consistency, safety, yield, automation, clean rooms — all these matter. India is still building experience. As the NITI Aayog report notes, an absence of past precedent is a risk. NITI AAYOG

Raw material supply & import dependence

Even if cells are made in India, many raw materials (lithium, cobalt, nickel, graphite) are not fully available domestically or are imported. The cost and supply security of raw materials remain major constraints.
If India wants to be truly self-reliant, it must build mining, processing and refining capacity (which takes time and investment).

Scale and capital intensity

Gigafactories require very large investments (CAPEX) and scale to bring down cost per unit. Smaller factories may struggle with cost competitiveness. For example, Amara Raja’s facility aims at 16 GWh cell capacity — but ramping to that level will require investment, supply chain, workforce. Batteries Daily+1
Access to affordable financing is also a challenge. The NITI Aayog note flagged financing risk. NITI AAYOG

Time-to-market and competition

Battery manufacturing globally is dominated by China, Korea, Japan, and established players have cost advantages. India must ramp quickly to avoid being a second-tier supplier or dependent on slower technology.
Also chemistry evolution (solid-state batteries, sodium-ion, etc) may shift the competitive landscape — India must ensure it isn’t locked into outdated chemistries.

Ecosystem maturity

It’s not just the factory; supporting ecosystem matters — component suppliers, battery management systems, testing, safety certification, recycling infrastructure, second-life battery systems. Building the ecosystem takes time and coordination.

Policy continuity & global supply shocks

Manufacturing investment decisions depend on stable policy, incentives, predictable regulation and power/infrastructure. Any disruptions (eg raw material export bans, trade friction, global supply chain shocks) could impact projects.
For example, one news article reports that Reliance requested an extension for its PLI scheme timeline and faced a penalty. Reuters

What this means for Indian EVs and consumers

Lower vehicle prices

As battery cost comes down via domestic manufacturing and scale, EVs in India can become cheaper relative to internal combustion vehicles (ICVs). This can drive broader adoption among two-wheelers, three-wheelers, cars, possibly buses.

Improved range and performance

With local manufacturing and technology focus, Indian companies can customise battery packs for Indian conditions (e.g., climate, charging infrastructure, two-wheeler/three-wheeler markets). That could improve performance, durability, user experience.

Boost to EV ecosystem

With stronger local battery supply, vehicle makers (OEMs) get reliable domestic source, faster turnaround, reduced logistics costs, better compatibility with local service/after-sales. This helps scale of EV manufacture and rollout in India.

Job creation & regional development

Battery manufacturing plants will spark industrial clusters, job creation (direct and indirect) in manufacturing, R&D, logistics, component supply, training. This aligns with “Make in India” and regional economic development.

Strategic & environmental benefits

Reduced import dependence on fossil-fuel vehicles and batteries, lower emissions via increased EV adoption, improved energy security — these are all positive long-term outcomes for India’s economy and environment.

Case Studies & Important Developments

Amara Raja’s giga factory (Telangana)

The Amara Raja facility is a direct example of investment in local cell manufacturing: “16 GWh of lithium-ion battery cell capacity and up to 5 GWh of battery pack capacity” and operations expected by end of 2025. The Financial Express+1 They plan to handle both NMC and LFP chemistries and both cylindrical and prismatic formats. ETAuto.com This shows the ambition to cover multiple formats and chemistries — which is critical given the evolving battery tech landscape.

Tata’s Gujarat gigafactory

In Gujarat the Tata group project marks a large cell manufacturing endeavour: investment ~₹13,000 crore, 20 GWh capacity, 13,000 jobs. The Times of India+1 The fact this is cell manufacturing (not just pack assembly) is significant because cells are higher value and more strategic.

Altmin’s cathode materials facility

Altmin has built India’s first LFP cathode gigafactory – highlighting that battery localisation is not just about cells/packs but also materials. Initial capacity 8 GWh, investment ₹750 crore, and located near Amara Raja’s plant for synergy. ETManufacturing.in

Ola Electric’s 4680 cell ambitions

Ola is targeting the 4680 cylindrical cell format (similar to what some global EV makers use) in Krishnagiri, Tamil Nadu, starting ~1 GWh capacity and expanding up to ~20 GWh. Emerging Technology News+1 This shows a vehicle-maker looking to vertical integrate battery cell manufacture rather than just buy.

Strategic Implications & Why Now

Global competition for battery manufacturing

Battery manufacturing is increasingly a strategic asset globally. Countries/regions want domestic battery manufacturing to capture the EV wave, enhance jobs, and reduce dependence on imports. India recognising this and moving quickly gives it a chance to become a credible manufacturing base rather than merely a market.

India’s potential advantages

India has certain structural advantages: large domestic EV market potential, increasingly skilled workforce, lower labour cost relative to many developed economies, and government support. A report noted India’s manufacturing labour cost being much lower than China’s in some contexts. Reuters+1
Additionally, India’s large two-wheeler/three-wheeler market provides a ramp segment for battery manufacturing (smaller packs, high volume) which global manufacturers may not be focusing on; India can leverage these segments while building scale for larger vehicles.

Technology transitions and early movers

Since battery technology continues to evolve (e.g., new chemistries, solid-state, improved materials), early investment and production capability matters. By entering now, India can develop capability, capture value chain and be better placed for the next generation of EVs. Furthermore, localisation and scale may give Indian companies a competitive cost position.

Integration with broader energy transition

Battery manufacturing links to renewable energy storage, grid services, and clean energy goals. As India ramps up solar and wind, energy storage via battery systems becomes essential; thus battery manufacturing has dual benefit (EVs + grid storage). Projects such as those by Reliance show this integration.

Risk Factors & What Could Go Wrong

Delay in execution and ramp-up

Announced factories often face delays in construction, equipment procurement, workforce training, commissioning. If domestic factories are delayed, import dependence will continue and cost advantages may be lost.

Cost competitiveness

If manufacturing cost remains significantly higher in India (due to lower economies of scale, technology lag, supply chain gaps), then imported batteries may still dominate or Indian cell manufacturing may struggle commercially.

Technology obsolescence

If India builds factories using older chemistry (say only LFP) while global trends shift to new chemistries or solid-state batteries, then factories risk becoming stranded assets or less competitive.

Raw material scarcity or geopolitical risk

Battery manufacturing depends on raw materials like lithium, cobalt, nickel, graphite. If India cannot secure reliable supply or faces import restrictions, costs may rise, and the cell production may face constraints.

Ecosystem gaps

If component suppliers, quality control, recycling infrastructure, workforce skills are not developed in parallel, the cell manufacturing plants may face bottlenecks (for example component import still required, cost rises, supply chain fragmented).

Policy & regulatory risk

Manufacturing investment decisions depend on stable policy, incentives, power, land, logistics. Any shifts in subsidy, regulatory burden, trade policy, labour laws etc could affect viability.

Outlook: What to Expect in the Next 3-10 Years

Short-term (1-3 years)

Many announced projects will begin pilot production or first phase operations. For example, Amara Raja expects by end 2025.
Domestic cell manufacturing capacity will still be relatively small compared to global volumes, but a meaningful start will be made.
Battery pack assembly will gain traction as domestic cells are integrated into packs for EVs.
EV makers will increasingly source packs/cells domestically (even if still partially imported) leading to better supply chain localization.

Medium-term (3-5 years)

Domestic battery manufacturing capacity grows to perhaps tens of GWh annually (cells + packs).
Cost per kWh of battery for Indian manufacturing begins to decline as scale, yields, process maturity improves.
EV costs drop meaningfully; adoption accelerates for passenger cars, two-wheelers and three-wheelers.
India begins to export battery components or even cells/packs to neighbouring markets maybe.
Recycling and second-life battery initiatives grow as battery volumes domestically increase.

Long-term (5-10 years)

India could become a regional hub for battery manufacturing if scale, cost and quality align.
Batteries become cheaper, EVs become mainstream in all segments (cars, buses, commercial EVs).
Domestically established firms may begin to own intellectual property (chemistry, cell format).
Supply chain maturity including raw material extraction, refining, recycling may improve.
India’s EV and storage ecosystem integrates with renewables and grid storage for holistic energy transition.

What It Means For India’s EV Industry

Two-wheelers & three-wheelers

Given India’s high volume of two-wheelers and three-wheelers, battery localisation helps dramatically in these segments; lower cost batteries mean affordable electric scooters, rickshaws, etc. This is already visible with companies like Ola Electric.

Passenger cars

With domestic cells and pack assembly ramping up, car OEMs can localise more of battery cost and reduce dependence on imports. That helps make EVs more price-competitive with internal combustion cars.

Commercial vehicles & buses

Large‐format batteries (for buses, commercial EVs) benefit from scale and cost reduction. Domestic manufacturing helps local OEMs produce EV buses for public transportation, reducing cost and creating a local ecosystem.

Charging infrastructure & ecosystem

Battery manufacturing localisation also supports infrastructure (packs for stationary storage, grid load balancing, swapping stations) thereby enabling a supportive EV ecosystem beyond just vehicles.

Vehicle OEMs & supply chain

Automotive OEMs (domestic and foreign) will benefit from shorter lead times, lower logistics, better localisation of sourcing, and possibly reduced cost of battery units. This helps India become more attractive as EV manufacturing destination.

Why “Local Batteries = Cheaper EVs”

We emphasised this point earlier; here's a breakdown of how local battery manufacturing contributes to cheaper EVs:

Reduced import duty & logistics cost: Imported cells/packs often carry duties, shipping costs, longer lead times. Domestic manufacturing avoids many of these costs.
Lower supply-chain overhead: When manufacturing and assembly are local, procurement, transport, inventory, and lead-time costs are lower.
Economies of scale: With large capacity (gigafactories), unit cost comes down. As Indian factories scale up, cost per kWh will decline.
Better integration and optimisation: Domestic plants can be optimized for local vehicle types, formats, and usage patterns (e.g., Indian two-wheelers, three-wheelers). Designs matched to local climate, charging infrastructure, service ecosystem.
Better bargaining power: If OEMs source locally, they have more negotiating power, less currency/foreign supplier risk, and can pass on savings to consumers.
Reduced dependency on imports and foreign exchange risk: With local cells, India is less vulnerable to fluctuations in global commodity price, logistics disruptions or foreign exchange swings.
Faster innovation and localisation: Local manufacturing allows quicker adaptation, cost innovation, and synergy with vehicle manufacturers, leading to further cost efficiencies, which again benefits final vehicle price.

Thus, one of the major outcomes of this industrial push is that the cost of an EV in India will drop over time—and battery localisation is a key lever in achieving that.

Broader Economic & Strategic Implications

Employment & regional development

Battery gigafactories are large industrial investments, creating employment not only in factory operations but in ancillary industries (component suppliers, logistics, testing labs, maintenance, recycling). Regions hosting these facilities (such as Gujarat, Telangana, Tamil Nadu) will benefit.

Manufacturing ecosystem and “Make in India”

Building battery cell manufacturing elevates India’s manufacturing prowess beyond traditional sectors (automotive components, electronics) into advanced technology manufacturing. This enhances India’s industrial base, skill development and global competitiveness.

Strategic autonomy and supply-chain resilience

As the world battles supply-chain disruptions (raw-material restrictions, export bans, logistics delays) the ability to produce critical components domestically is a strategic advantage. Batteries and EVs are central to energy and transport future — having domestic capability offers resilience and sovereignty.

Export potential and global competitiveness

If Indian battery manufacturing becomes cost-competitive and high quality, India could become an export hub for cells, packs or modules to other regions (South Asia, Africa, Middle East). That creates foreign exchange earnings and positions India in the global supply chain rather than just as a market.

Environmental and climate goals

EV adoption is critical for reducing transport emissions. With local batteries, EV cost goes down, adoption accelerates, emissions drop. Also battery manufacturing and storage tie into renewable energy deployment (solar, wind + storage), making India’s energy transition stronger.

What Consumers and Vehicle Buyers Should Know

If you are considering buying an EV in India, note that as domestic battery manufacturing ramps up, you may benefit from lower prices and improved local support for batteries/packs.
Local battery manufacturing also means potentially better availability of spare parts, quicker service, domestic service network for battery‐related issues.
Keep an eye on vehicle makers partnering with domestic battery manufacturers — this may lead to improved warranties, cost savings passed on to you.
Also, improved battery manufacturing means better choice of vehicles across segments (two-wheelers, three-wheelers, cars) as more EVs come to market cost-competitively.
From a long-term perspective, battery recycling and second-life usage will also become relevant as EVs scale — local manufacturing helps ensure local ecosystem for end-of-life batteries.

Conclusion

The initiative to localise EV battery manufacturing in India is a game‐changer. With major companies investing in gigafactories, cell manufacturing, materials supply, and supporting ecosystem, India is positioning itself to reduce dependence on imported batteries, lower EV costs, build jobs and manufacturing strength, and accelerate vehicle electrification.

The push aligns with the government’s “Atmanirbhar Bharat” ambition and firmly places India on the batteries/EV supply chain map. While challenges remain — technological sophistication, raw material supply, achieving scale, cost competitiveness — the momentum is unmistakable.

The key takeaway is: local batteries will mean cheaper EVs in the future. Consumers, vehicle makers, component suppliers and policymakers all benefit from a stronger domestic battery ecosystem. As the factories ramp, the cost of energy storage and vehicles comes down, adoption rises, and India’s EV story accelerates.

If all goes well, over the next 5–10 years we could see Indian‐made battery cells powering Indian EVs, assembled domestically, supported by local supply chains and recycling — and that will mark a major milestone in India’s journey towards self-reliance in clean mobility.