India’s battery industry is entering a high-growth phase, with the shift from imported and assembled lithium-ion cells to domestic cell-to-pack manufacturing expected to create up to 2 million jobs by 2030, according to Adecco India.

 

The sector is rapidly moving beyond assembly and import dependence towards an integrated industrial ecosystem spanning cell manufacturing, battery components, pack integration and recycling.

 

Adecco India estimates that the battery industry could generate 1.5 million to 2 million jobs by 2030, with 25% of these roles created directly and 75% indirectly. Hiring is expected to grow by 25%-30% year-on-year, with demand increasingly shifting towards specialised capabilities in electrochemistry, materials science and battery process engineering.

 

Deepesh Gupta, Director and Head of General Staffing, Adecco India, said: "India’s battery manufacturing journey is no longer just a policy ambition; it is now translating into plant-level capacity. Under the PLI Scheme for Advanced Chemistry Cells, the Government of India has committed Rs. 18,100 crore to develop 50 GWh of domestic ACC manufacturing capacity, with an additional 5 GWh reserved for niche chemistries. 

 

"A new component manufacturing incentive scheme of nearly Rs. 12,000 crore is also under consideration for cathode and anode active materials, copper foil, electrolytes and separators. With battery manufacturing capacity currently at around 60 GWh and expected to approach 100 GWh by the end of 2026, along with upcoming gigafactory investments in Gujarat, Karnataka, Haryana and Telangana, the sector is moving beyond assembly and building the depth of a full industrial ecosystem. 

 

"Since battery components account for more than 60% of cell cost, and India continues to depend heavily on imported lithium, cobalt and refined battery-grade materials, workforce planning must cover the entire value chain, from cell chemistry and pack integration to end-of-life recycling, not just finished-vehicle manufacturing,”

 

Gupta added: "Catalysing the vision of ‘Atmanirbhar Bharat’, this localisation drive, supported by the Critical Minerals Mission and India’s participation in the Quad Critical Minerals Initiative Framework, will reduce India’s reliance on imported cells and refined materials, strengthen energy security, and support the Net-Zero target by 2070, while creating employment opportunities across both established manufacturing hubs and emerging Tier-2 and Tier-3 industrial corridors."

 

Lithium battery manufacturing is expected to account for 50%-60% of India’s projected green manufacturing jobs by 2030. The specialised nature of the sector is also pushing up compensation, with battery engineering talent commanding salary premiums of up to 35%-40% over conventional manufacturing and electronics roles.

 

Gigafactory clusters are emerging as the sector’s biggest employment engines, with Karnataka, Telangana, Gujarat and Haryana at the centre of capacity expansion. Individual facilities are expected to range from 6 GWh to more than 16 GWh of cell and pack manufacturing capacity.

 

Around 70% of total hiring demand is expected to be concentrated in these major clusters. Another 30% of new mandates is projected to come from Tier-2 and Tier-3 industrial corridors as component parks, recycling facilities and supplier ecosystems develop around large battery plants.

 

Karnataka is expected to account for the largest share of hiring at 24%, followed by Gujarat at 22%, Telangana at 18% and Haryana at 14%.

 

Cell manufacturing and battery components are expected to account for the largest share of recruitment, at 42%-45%.

 

The hiring surge will extend beyond gigafactory operators to manufacturers of cathode and anode active materials, copper foil, electrolytes, separators and precursor chemicals as India seeks to build a more localised battery supply chain.

 

The scale of the challenge remains significant. China currently controls roughly 80% of global copper foil output and dominates the refining of lithium, nickel and cobalt.

 

India’s battery ambitions are also beginning to extend beyond lithium-ion technology.

 

A 2026 CEEW assessment indicates that India may need to diversify its battery chemistries as annual demand could reach around 1.3 TWh by 2047. Sodium-ion batteries are emerging as one potential pathway, offering an opportunity to reduce supply-chain vulnerabilities while leveraging existing domestic industrial capabilities.

 

Key sodium-ion components, including cathode materials, hard-carbon anodes, electrolytes and aluminium current collectors, can draw on capabilities already present in India’s pharmaceutical, fertiliser, textile and chemical industries.

 

The emergence of companies developing hard carbon from agricultural and bio-waste for sodium-ion batteries, with support from the Department of Science and Technology and the Technology Development Board, could further accelerate cross-sector movement of chemical and process engineering talent.

 

The hiring mix is also becoming increasingly specialised.

 

At the entry level, process engineering, cell testing, validation and quality functions account for 45% of demand. Mid-level recruitment is shifting towards Battery Management System Engineers, Process and Automation Engineers, and Materials and Electrochemistry Engineers, which together account for 40%.

 

At the senior level, demand is concentrated on Cell Chemistry Scientists, Functional Safety Leaders and Advanced Manufacturing Heads, accounting for the remaining 15%.

 

Battery recycling and circular-economy manufacturing are rapidly becoming critical components of the industry’s growth story as volumes of end-of-life batteries increase.

 

India currently recycles only a small fraction of its end-of-life lithium-ion batteries, while industry estimates peg the potential recycling market at around USD 3.5 billion by 2030.

 

The Government’s Critical Minerals Mission and the KABIL joint venture are also adding momentum to efforts to secure upstream supplies of lithium, cobalt and nickel, making materials recovery and recycling increasingly important to workforce planning.

 

Hiring in battery recycling is projected to grow by 25%-30%, with demand rising for Hydrometallurgy Engineers, Battery Diagnostics Specialists and EPR Compliance Leaders. Salary premiums could reach 30%-40%, amid an estimated 45% shortage of specialised skills.

 

Despite the rapid expansion in manufacturing capacity, the availability of specialised talent remains a major constraint.

 

“Despite the pace of capacity announcements, specialised battery talent availability continues to lag industry demand by 25-30% across electrochemistry, materials science, battery process engineering and functional safety. 

 

"A significant share of India’s conventional electronics and automotive manufacturing workforce, skilled in mechanical and electrical assembly, is not directly transferable to gigafactory environments without structured reskilling in cell chemistry, cleanroom protocols and battery safety systems. 

 

"Addressing this gap will require accelerated reskilling of the existing manufacturing workforce, deeper industry-academia collaboration with chemical engineering and materials science institutions, and sustained investment in specialised battery technical education,” Deepesh added.

 

The next phase of India’s battery manufacturing expansion will therefore depend not only on factories and capital, but also on the availability of highly specialised technical talent.

 

Companies that build function-specific talent pipelines across cell chemistry, process manufacturing, functional safety and materials recovery are likely to be better positioned as the ecosystem scales.

 

For an industry still in the early stages of building an integrated domestic supply chain, a one-size-fits-all workforce strategy is unlikely to work.