Research/Industry Reports/Battery & Cell Manufacturing
Energy · Battery & Cell Manufacturing

Battery & Cell Manufacturing: India's Multi-Decade Energy Storage Imperative

India's burgeoning energy transition and EV adoption are catapulting domestic battery and cell manufacturing into a strategic, capital-intensive growth sector with significant long-term value creation potential.

Market Size

~$25 Bn (India, FY26E)

Growth

~28-32% CAGR (FY26–30E)

Read

9 min

Published

18 Aug 2026

Executive Summary

India is poised for a transformative shift in its energy landscape, driven by ambitious renewable energy targets and rapid electric vehicle (EV) penetration. At the core of this transition is the imperative for robust domestic battery and cell manufacturing capabilities, moving beyond mere assembly. Government support through schemes like the Production Linked Incentive (PLI) for Advanced Chemistry Cell (ACC) battery storage is critical, aiming to localize a value chain currently heavily reliant on imports, particularly from East Asia.

The sector presents a multi-decade investment opportunity, characterized by high capital expenditure requirements, long gestation periods, and a steep learning curve. Success hinges on securing critical raw materials, developing proprietary cell chemistry, scaling manufacturing efficiency, and building a resilient supply chain. Early movers with strong balance sheets and technological partnerships are likely to establish dominant positions.

While initial demand is primarily from the automotive sector (2W, 3W, buses, and increasingly 4W EVs), significant growth is anticipated from grid-scale energy storage systems (ESS) to stabilize renewable energy integration, as well as consumer electronics. The transition from lithium-ion to potentially next-generation chemistries (e.g., Sodium-ion) also presents a strategic pivot point for Indian players aiming for cost leadership and raw material independence.

For investors, understanding the underlying unit economics, the role of government incentives, the global competitive landscape, and the financial strength of key players is paramount. The sector's growth trajectory is tied to EV adoption rates, renewable energy deployment, and the effectiveness of localization efforts, suggesting a potentially lumpy but ultimately substantial return profile for patient capital.

Overview

The Indian battery and cell manufacturing market is in its nascent stages of large-scale localization, transitioning from primarily battery pack assembly to integrated cell production. Demand is structurally strong, propelled by the government's push for electrification across transport and energy storage. The EV segment, particularly two-wheelers and three-wheelers, is the immediate volume driver, while utility-scale grid storage is emerging as a critical, large-format application.

Supply currently remains dominated by imports of cells, primarily from China, South Korea, and Japan. Domestic players are investing heavily in Giga-factories under the ACC PLI scheme, aiming to establish millions of GWh of cell manufacturing capacity over the next few years. This involves significant technology transfer agreements and joint ventures with global leaders to acquire the necessary know-how and intellectual property.

The current state is characterized by intense competition for technology, raw material sourcing, and skilled talent. Companies are evaluating various cell chemistries, including LFP (Lithium Iron Phosphate) for cost-sensitive applications and NMC (Nickel Manganese Cobalt) for higher energy density needs. The long lead times for machinery procurement and plant commissioning mean that significant domestic output is still a few years away, creating a window for strategic partnerships and capital deployment.

Market structure is evolving from fragmented assemblers to a more consolidated landscape dominated by a few large conglomerates and specialized battery manufacturers. These players are not only focusing on cell production but also backward integration into raw material processing and forward integration into battery management systems (BMS) and recycling, aiming to capture a larger share of the value chain.

Market Size Trajectory ($ Bn)
25FY26E32FY27E41FY28E52FY29E66FY30E

Estimates compiled by Neoma Research; directional, not investment advice.

Market Mix
Mix
EV Batteries60%
Grid Energy Storage20%
Consumer Electronics10%
Industrial & Others10%

Indicative segment shares; estimates vary by source.

Key Highlights

    Growth Drivers

    • EV Adoption: Government policies (FAME II, state subsidies) and increasing consumer awareness are accelerating the shift to electric mobility across vehicle segments.
    • Renewable Energy Integration: Growing demand for grid-scale Battery Energy Storage Systems (BESS) to manage intermittency of solar and wind power, supported by regulatory mandates.
    • PLI Scheme for ACC: The Production Linked Incentive scheme for Advanced Chemistry Cell manufacturing, offering significant financial incentives for domestic production, is a primary catalyst.
    • Energy Security & Localization: Strategic imperative to reduce import dependency and build self-reliance in critical energy storage technologies.
    • Technological Advancements: Continuous improvements in battery chemistry, energy density, safety, and cost reduction are expanding application areas and improving viability.
    • Falling Battery Costs: Global trends of declining battery pack costs make EVs and ESS more competitive, further stimulating demand.

    Market Sizing

    TAM (India, FY26E)

    ~$25 Bn

    Total addressable market across EV, ESS, and consumer electronics

    SAM

    ~$12-15 Bn

    Serviceable available market for domestic cell and battery pack manufacturers

    SOM / addressable now

    ~$4-6 Bn

    Serviceable obtainable market for current domestic cell manufacturing capacity

    Financial Snapshot (indicative)

    Typical EBITDA marginFor integrated cell and pack manufacturing, post-stabilization~12-18%
    Revenue growth (FY26–30E)~28-32% CAGR
    Capex intensityHigh, with initial Giga-factory investments requiring ~$0.8-1.0 Mn per GWh of capacity
    Typical EV/EBITDA (peers)For established global players; Indian nascent players likely higher due to growth premium~18-25x
    RoCE rangePost-stabilization, once capacity utilization matures~10-15%
    Working-capital / cash-cycleElongated, due to significant raw material inventory, import dependency, and high R&D spend

    Unit Economics

    • Raw Material Costs: Constitute roughly ~60-70% of cell manufacturing costs, dominated by cathode, anode, electrolyte, and separator materials. Volatility in lithium, nickel, and cobalt prices significantly impacts margins.
    • Operating Leverage: High fixed costs associated with Giga-factory infrastructure, R&D, and specialized labor mean that achieving high capacity utilization is critical for profitability. Margins expand significantly past breakeven volumes.
    • Energy & Labour: Energy costs are a notable component, especially for drying and heating processes. While Indian labor costs are competitive, specialized engineering talent for cell manufacturing remains scarce and commands a premium.
    • Technology & IP: Licensing fees and ongoing R&D investments for chemistry improvements, safety, and energy density are crucial. Proprietary technology can offer a sustainable cost and performance advantage.

    Value Chain & Profit Pools

    • Raw Material Sourcing: Mining and processing of critical minerals like lithium, cobalt, nickel, graphite. India is heavily import-dependent here.
    • Precursor & Cathode/Anode Material Production: Chemical processing to create active materials for cell electrodes. A key area for localization.
    • Cell Manufacturing: The core process of producing individual battery cells (e.g., cylindrical, prismatic, pouch) from active materials, separators, and electrolytes.
    • Battery Pack Assembly: Combining multiple cells into modules and then into complete battery packs, integrating Battery Management Systems (BMS) and thermal management.
    • Charging & Swapping Infrastructure: Deployment of charging stations and battery swapping networks to support EV adoption.
    • Recycling & Second Life Applications: End-of-life battery collection, dismantling, material recovery, and repurposing for stationary storage, critical for sustainability and circular economy.

    Key Players

    Reliance Industries (Reliance New Energy Solar)Ola Electric MobilityExide IndustriesAmara Raja Batteries (Amara Raja Advanced Cell Technologies)Tata Chemicals (Tata Group)JSW GroupLog9 Materials (unlisted)Lohum Cleantech (unlisted, recycling focused)Godrej & Boyce (potential entrant)Adani New Industries (potential entrant)

    Reliance New Energy Solar

    Aggressive Giga-factory plans, strategic acquisitions (Faradion, Lithium Werks), aiming for integrated energy storage ecosystem.

    Ola Electric

    Vertically integrated approach, building India's largest Giga-factory for cell manufacturing to power its EV ambitions.

    Exide Industries

    Traditional battery major transitioning into advanced cell manufacturing with technology partners (SVOLT), leveraging existing distribution.

    Amara Raja Batteries

    Established player investing in advanced cell technology, focusing on both EV and ESS applications.

    Log9 Materials

    Indigenous R&D focused on rapid-charging, long-life battery solutions, particularly for 2W/3W EVs and stationary storage.

    ACC Energy Storage (JV between JSW Group and Hyundai Motor Group)

    Newly formed JV to develop and manufacture ACC batteries for EVs and ESS in India, leveraging global expertise.

    Valuation & Comparables

    • Valuation multiples for nascent Indian cell manufacturers are likely to command a premium over traditional industrial companies, reflecting their long-term growth potential and strategic importance.
    • Global comparable multiples for established battery manufacturers often range from ~18-25x EV/EBITDA, but Indian players might trade higher due to the early stage of market development and significant TAM.
    • Key re-rating catalysts include successful commissioning of Giga-factories, securing long-term raw material contracts, achieving cost efficiencies, and demonstrating technological prowess.
    • De-rating risks stem from delays in capacity ramp-up, inability to secure raw materials at competitive prices, intense competition, and shifts in government policy or incentive structures.

    Scenarios

    Bull case

    Aggressive EV adoption and rapid renewable energy deployment, coupled with effective PLI implementation and successful indigenous technology development, lead to faster-than-anticipated localization and scale.

    Implication: Market size could exceed ~$35 Bn by FY26E, with early movers achieving strong market share and superior profitability as economies of scale kick in, attracting significant further investment.

    Base case

    Steady EV growth, moderate renewable energy integration, and gradual ramp-up of domestic cell manufacturing capacity, largely in line with PLI targets, with continued reliance on some imports.

    Implication: Market size roughly aligns with projections of ~$25 Bn by FY26E, with competitive intensity increasing as more players enter. Profitability driven by efficient operations and strategic partnerships.

    Bear case

    Slower-than-expected EV adoption, challenges in raw material sourcing, technological hurdles, or policy inconsistencies hinder domestic manufacturing ramp-up, maintaining high import dependency.

    Implication: Market growth could be muted, potentially below ~$20 Bn by FY26E. Domestic players face margin pressure from global competition and higher input costs, leading to consolidation and potential project delays.

    Policy & Regulatory Landscape

    • Production Linked Incentive (PLI) Scheme for Advanced Chemistry Cell (ACC) Battery Storage: Offering ~INR 18,100 Cr (~$2.2 Bn) over 5 years to incentivize 50 GWh of domestic ACC manufacturing.
    • FAME II Scheme: Driving EV adoption through subsidies for electric vehicles, indirectly boosting demand for domestic battery manufacturing.
    • Customs Duties & Tariffs: Potential for calibrated import duties on cells and battery components to encourage local manufacturing and value addition.
    • Battery Waste Management Rules: Mandating Extended Producer Responsibility (EPR) for battery manufacturers and importers, promoting recycling and circular economy principles.
    • Bureau of Indian Standards (BIS) Norms: Developing safety and quality standards for EV batteries, impacting design and manufacturing processes for domestic players.

    The Investor's Edge - what most research misses

    • The PLI scheme, while a significant tailwind, also creates an 'arms race' for capacity among a few large players. The real differentiation will come from technology IP and raw material security beyond the PLI period.
    • Cycle-timing asymmetries exist: while EV demand is growing, large-scale domestic cell supply is still 2-3 years out. This gap creates opportunities for importers and assemblers in the interim, but long-term value accrues to cell producers.
    • Regulatory arbitrage opportunities might emerge around local content requirements and nuanced tariff structures, favoring players with flexible supply chains and strong government relations.
    • For unlisted exposure, focus on cap-table strength, investor quality, and clear pathways to liquidity (e.g., IPO, strategic sale) given the long investment horizon. Avoid companies with overly complex or dilutive financing structures.
    • Consensus might underestimate the challenges of scaling advanced manufacturing in India – from specialized machinery imports to talent acquisition and quality control. Operational excellence will be a significant competitive moat, not just capital deployment.

    Investment Outlook

    The Indian battery and cell manufacturing sector is set for robust, multi-year growth, underpinned by strong policy support and burgeoning demand from electrification trends. While initial years will be capital-intensive with execution challenges, the long-term outlook appears highly favorable.

    Catalysts to Watch

    1FY25-26E: Commissioning of initial Giga-factory phases by PLI beneficiaries (e.g., Reliance, Ola Electric, Exide, Amara Raja).
    2H2 FY25E: Announcement of new PLI rounds or extensions for ACC, potentially including new chemistries like Sodium-ion.
    3Ongoing: Key raw material supply agreements or joint ventures with global miners/processors by Indian players.
    4FY26E: Significant ramp-up in EV penetration across 2W, 3W, and 4W segments, driving increased demand for domestic cells.
    5FY26-27E: Successful deployment of large-scale grid energy storage projects, opening up a new demand vector.
    6Ongoing: IPO filings or significant funding rounds by prominent unlisted battery technology players.

    How Investors Can Play It

    • Exposure can be gained through listed conglomerates (e.g., Reliance, Tata Group, JSW Group) that are investing heavily in the battery ecosystem, offering diversified exposure.
    • Pure-play listed battery manufacturers (e.g., Exide, Amara Raja) are transitioning their businesses, presenting a direct but higher-risk play on the sector's transformation.
    • Unlisted / pre-IPO players (e.g., Ola Electric, Log9 Materials, Lohum Cleantech) offer potential for outsized returns but come with higher liquidity risks and valuation complexities.
    • Investors should closely monitor capacity commissioning timelines, raw material procurement strategies, and the success of technology partnerships for key players.
    • Evaluate the financial strength and long-term commitment of parent companies, as battery manufacturing is a capital-intensive business requiring sustained investment.

    Key Risks

    • Raw Material Volatility & Sourcing: Dependence on imported critical minerals (lithium, nickel, cobalt) exposes manufacturers to price fluctuations and geopolitical supply chain risks.
    • Technological Obsolescence: Rapid advancements in battery chemistry mean current investments could become less competitive with the emergence of superior, lower-cost alternatives.
    • High Capital Expenditure & Long Gestation: Significant upfront investment and long lead times for Giga-factory commissioning pose financial and execution risks.
    • Global Competition: Established global players with scale and R&D advantages could undercut domestic pricing, especially if localization efforts lag.
    • Policy & Regulatory Uncertainty: Changes in PLI scheme parameters, EV subsidies, or import duties could impact the financial viability of projects.
    • Skilled Manpower Shortage: Dearth of specialized engineers and technicians for advanced cell manufacturing could impede scale-up and operational efficiency.

    The Neoma View

    We believe the market is still underestimating the scale and complexity of building a truly indigenous cell manufacturing ecosystem in India. The winners will not just be those with capital, but those who can master raw material security, intellectual property, and operational efficiency, likely favoring integrated players with strong global partnerships and patient capital over the next ~3-5 years. The focus on Sodium-ion could be a game-changer for India's cost and resource independence.

    Talk to an advisor →

    Indicative sources: Industry associations (IBMA, SIAM), company filings (MCA), broker estimates, government policy documents (NITI Aayog, MNRE), global energy research agencies.

    All figures are indicative and for information only - not investment advice or a recommendation. Market sizes, growth rates and financial metrics are hedged estimates that vary by source and period. Please consult your advisor before investing.

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