India’s Lithium-Ion Battery Ambition: Big Plans, Slow Reality

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India has set one of the world’s most ambitious goals for battery manufacturing — driven by electric vehicles, energy storage, electronics, and industrial electrification. The country wants to become a major global lithium-ion battery production hub.
But while announcements are large, actual production remains limited. Today, India’s battery industry stands at a critical transition point — and the gap between ambition and execution reveals how difficult battery manufacturing truly is.

The Gap Between Announcements and Production

India has announced over 100 GWh of lithium-ion battery manufacturing capacity — yet only 1–1.4 GWh is operational as of 2025–2026. Here’s a data-driven look at the projects, the policy framework, and the gap that still needs to be bridged.

ACC PLI Program & Technology Partnerships

The government’s Advanced Chemistry Cell (ACC) Production-Linked Incentive scheme is the central policy lever driving domestic cell manufacturing. With a target of 50 GWh and incentives worth ₹18,100 crore, the program has so far awarded 40 GWh across two rounds. A parallel trend defines the industry: most Indian manufacturers are securing technology through partnerships with Chinese or global battery leaders rather than developing proprietary cell chemistry in-house.
 

ACC PLI Awards

Round 1 — 2022
  • Ola Electric — 20 GWh
  • Reliance New Energy — 5 GWh
  • Rajesh Exports — 5 GWh
  • Hyundai Global Motors — 20 GWh (later withdrew)
Round 2 — 2025
  • Reliance New Energy — Additional 10 GWh
Total Awarded: 40 GWh of 50 GWh target

Technology Partnerships

Indian battery manufacturers are overwhelmingly licensing cell technology from established global partners, reflecting the nascent state of domestic R&D in advanced battery chemistry.
 
  • Amara Raja → Gotion High-Tech (China) LFP cell technology licensing deal — strong strategic fit for grid and EV applications.
  • Exide Industries → SVOLT (China) Joint development agreement to localize next-generation cell production in Karnataka.
  • Agratas (Tata) → AESC Partnership with the Japanese-origin global cell manufacturer to accelerate ramp-up.
  • Reliance → Multiple Partners Series of technology acquisitions and global partnerships to build a vertically integrated battery value chain.
  • Ola Electric → Internal Development The only player pursuing in-house cell chemistry development, supplemented by equipment sourcing.

Major Battery Manufacturing Investments in India

India’s battery pipeline spans a diverse set of players — from conglomerates like Reliance and Tata to EV-native companies like Ola Electric. While most projects remain under construction or in early development, the scale of capital commitments signals long-term strategic intent. Ola Electric stands alone as the only company with live cell production today.
 
Company Capacity Investment Location Status
Reliance Industries 40–100 GWh Multi-billion USD Jamnagar, Gujarat Under construction; phased rollout expected
Ola Electric 20 GWh ~$1B+ Krishnagiri, Tamil Nadu Only operational cell producer (~1–1.4 GWh)
Agratas (Tata) 20 GWh Multi-billion USD Gujarat Under development
Amara Raja 16 GWh ₹9,500–10,000 crore Telangana Pilot production; bulk targeted 2027
Exide Industries 12 GWh ₹6,000+ crore Karnataka Gigafactory under development
JSW Energy 10 GWh+ Not disclosed TBD Bid submitted
Waaree Energy Large-scale ₹8,175 crore Andhra Pradesh Announced 2026
Rajesh Exports 5 GWh PLI beneficiary Karnataka Delayed
Godi India Several GWh Not disclosed Telangana Early-stage manufacturing

Announced Capacity ≠ Operational Production

India’s situation reflects a broader global reality. Many countries now announce gigafactory projects, but far fewer achieve stable commercial output, high yields, cost competitiveness, and long-term profitability.
 
Announced Capacity ≠ Operational Production
Battery manufacturing remains one of the most difficult industrial processes in the world. Headline capacity numbers are easy to announce — execution capability is what separates leaders from laggards.
 

Why Battery Manufacturing Is So Difficult

A Gigafactory Is Not an Assembly Plant

Many countries underestimate the complexity of lithium-ion cell production. Even small process deviations can cause poor cycle life, swelling, thermal runaway, low yield rates, and inconsistent performance. This is why only a handful of countries dominate global battery cell manufacturing today.

Manufacturing Mastery Required

  • Electrode coating & slurry mixing
  • Moisture control & calendaring
  • Formation cycling & aging optimization
  • Yield management & thermal safety
  • Electrochemistry process integration

China's Dominance Remains Extremely Strong

India’s battery ecosystem still depends heavily on China across the entire supply chain. China’s advantage was built over more than a decade — and it is difficult to replicate quickly.

Supply Chain Dependencies

India relies on China for cathode materials, anode materials, separators, electrolytes, production machinery, and process engineering.

How China Built Its Edge

Massive capital investment, supplier ecosystem density, rapid manufacturing iteration, vertical integration, and decades of engineering experience at industrial scale.

The Replication Challenge

Even countries with strong government incentives still face major execution challenges. Building the ecosystem takes far longer than building the factories.

What This Means for OEMs and Battery System Companies

Reliable battery supply chains require more than factory announcements.

For OEMs and battery system companies operating in or entering India, the key lesson is clear. Critical factors that determine real supply chain reliability go well beyond announced gigawatt-hours.

01

Manufacturing Maturity

Proven process control and stable yields at commercial scale.

02

Quality Consistency

Reliable cell performance and engineering expertise across production runs.

03

Supply Chain Depth

Robust upstream material sourcing and supplier ecosystem integration.

04

Long-Term Operational Stability

Field reliability and sustained profitability over years of production.

Final Thoughts

India’s battery manufacturing ambitions highlight a reality that many regions around the world are facing today. Building a domestic battery ecosystem requires far more than announcing gigafactory capacity or securing investment commitments. Success depends on manufacturing expertise, supply chain resilience, product quality, safety compliance, and the ability to consistently deliver reliable batteries at scale.

This challenge is not unique to India. Similar obstacles have contributed to delays, restructurings, and even bankruptcies among battery manufacturers across the United States, Europe, and other emerging markets.

At PHD Energy, we understand these challenges because battery manufacturing is far more complex than simply assembling cells into a pack. That’s why we focus on what ultimately matters to our customers:

• Proven battery technologies
• Reliable supply chains
• Application-specific engineering
• Safety and certification expertise
• Long-term product support
• Real-world field performance

Whether you’re developing a medical device, industrial system, IoT product, or specialized electronic application, our team helps transform battery concepts into dependable, production-ready power solutions. Contact PHD Energy to discuss your custom battery requirements and learn how our engineering and manufacturing experience can support your next project.

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