Ola Electric is moving beyond electric mobility with its Shakti battery storage platform, built around lithium iron phosphate cells produced through its own vertically integrated manufacturing operations.
The move reflects a broader shift in India’s battery industry. Storage demand is no longer limited to electric vehicles, while domestic manufacturing policies are encouraging companies to build local supply chains for cells, packs and power electronics.
For Ola, the challenge is to demonstrate that technology developed for mobility can be translated into stationary applications where cycle life, thermal management, system availability and delivered cost matter differently.
Ola Expands From Electric Vehicles Into Stationary Storage
Ola Electric was founded in Bengaluru in 2017 and has primarily focused on electric two wheelers. The company has historically sourced cells from international suppliers including LG Energy Solution and CATL, while developing its own manufacturing capabilities in India.
Its battery manufacturing ambitions are centered on the Ola Gigafactory in Krishnagiri, Tamil Nadu. The facility is designed around cylindrical cell production and is intended to support Ola’s broader battery ecosystem.
The Shakti platform represents an attempt to extend that manufacturing base into stationary energy storage, creating a potential second market for the company’s cell production.
The strategic logic is straightforward. Electric vehicle demand can fluctuate, while stationary storage is becoming increasingly linked to India’s renewable generation targets, transmission constraints and peak electricity demand. A diversified battery business could therefore increase utilization of domestic manufacturing assets.
But stationary storage also introduces different performance requirements. Batteries deployed on the grid are expected to operate for many years under predictable but demanding cycling regimes, making degradation, thermal management, availability and warranty structures central to project economics.
Ola’s initial residential product is the Shakti Gen2, designed for whole home backup and integration with solar installations.
The company has announced introductory prices starting at INR 99,999 for a 4.6 kWh system with 3 kW power output and INR 174,999 for a 9.2 kWh system with 6 kW output. Deliveries are expected to begin in November 2026.
The economics of these systems will depend on more than the headline purchase price. Residential customers will evaluate the storage system against the cost of grid electricity, backup generators, rooftop solar and the expected replacement or degradation profile of the battery.
Ola is also targeting commercial applications with the Shakti AC Rack, which provides 73 kWh of storage and integrates an inverter with an output range of 18 to 50 kW. A modular DC system is intended for applications including telecommunications infrastructure.
These applications are potentially more attractive for early deployment because storage can provide several services simultaneously, including backup power, peak demand management and improved utilization of onsite solar generation.
The commercial market, however, is also likely to be highly price sensitive. The value of storage depends on the difference between electricity prices during peak and off peak periods, demand charges, backup requirements and the availability of alternative flexibility resources.
Mahashakti Targets India’s Utility Scale Storage Market
At the utility scale, Ola is introducing its Mahashakti architecture, a liquid cooled battery system with 6.26 MWh of energy capacity and 2.5 MW of power capacity per container.
The system can be configured for two to four hour durations, positioning it for applications including renewable integration, grid support and shifting electricity from periods of high renewable output toward periods of stronger demand.
That segment is particularly important because India’s renewable expansion is increasing the need for flexible resources capable of balancing variable generation.
The country’s storage requirement is expected to grow substantially as solar and wind capacity expand. The CEA’s National Electricity Plan projects significant growth in battery storage requirements through the end of the decade, while the Ministry of Power has been developing policies intended to accelerate storage deployment.
For battery manufacturers, utility scale projects offer substantially larger order volumes than residential systems. They also impose stricter requirements around safety, performance guarantees, degradation and system availability.
The ability to manufacture LFP cells domestically could become a competitive advantage if Ola can achieve sufficient scale. LFP chemistry generally offers a combination of thermal stability, cycle life and cost characteristics that make it widely used in stationary storage, although system economics ultimately depend on cell pricing, financing, balance of system costs and operating conditions.
Ola says it has signed a memorandum of understanding with Axis Energy covering the potential deployment of up to 20 GWh of battery energy storage systems through 2032 under the Mahashakti platform.
The scale is notable, but the distinction between an MoU and contracted deployment is important. The agreement represents potential future demand rather than 20 GWh of confirmed orders.
If fully realized, the volume would provide Ola with a significant anchor customer for its utility scale storage business. It could also give the company an opportunity to establish operating data across multiple projects, which becomes increasingly valuable as developers compare competing storage technologies.
The next stage will be converting potential deployment into financially committed projects. Utility scale storage developers need clarity around revenue streams, including capacity payments, ancillary services, energy arbitrage and renewable integration. Without sufficiently predictable revenues, even competitive battery costs may not produce financeable projects.
Domestic Manufacturing Is Becoming a Strategic Variable
India has been pushing to establish a domestic battery manufacturing industry through industrial policy and production linked incentives. The objective is to reduce dependence on imported cells and strengthen domestic capabilities across a strategically important energy technology.
Ola’s expansion fits into that broader policy direction, but localization alone does not guarantee cost competitiveness.
Indian manufacturers still face competition from established Asian battery supply chains with much larger production volumes and mature materials ecosystems. Cell manufacturing requires access to processed lithium, cathode materials, graphite, separators, electrolyte and specialized manufacturing equipment. Building the final cell locally therefore does not automatically eliminate exposure to international commodity and equipment markets.
For Ola, vertical integration can nevertheless provide greater control over cell design, pack architecture and manufacturing costs. It could also allow the company to adapt its battery systems to India’s climate and operating conditions rather than relying entirely on products developed for other markets.
Ola’s expansion into storage comes at a time when India’s electricity system is becoming increasingly dependent on flexible capacity.
The country’s rapid solar deployment creates periods of high daytime generation followed by evening demand peaks. Battery storage can address part of that mismatch, but the economic case depends on how often batteries are cycled, the value assigned to different grid services and the cost of replacing capacity as batteries degrade.
This makes the performance of the Mahashakti platform more consequential than the number of products in the Shakti portfolio.
The residential, commercial and utility systems give Ola access to different segments of the storage market, but each requires a distinct commercial model. Residential systems compete primarily on upfront cost and reliability. Commercial systems must demonstrate savings and backup value. Utility systems require long term performance guarantees and predictable project economics.
The company’s stated 20 GWh potential agreement with Axis Energy could provide an important pathway into the largest of these markets, but actual project awards and operating performance will determine whether the platform develops into a meaningful utility scale business.
