Next Generation Batteries Market to Reach USD 3,566.7 Million by 2032 as Solid-State Technology and Renewable Storage Take Off

In April 2025, Stellantis and Factorial Energy validated automotive-sized solid-state cells with an energy density of 375 Wh/kg.

 The global next generation batteries market is gaining pace as electric mobility and renewable energy integration reshape the demand for energy storage. Kings Research reports that the market was valued at USD 1,940.6 million in 2024 and USD 2,087.9 million in 2025, and is projected to reach USD 3,566.7 million by 2032, registering a compound annual growth rate (CAGR) of 7.85% during the 2025–2032 forecast period.

The market covers the development and commercialization of advanced battery technologies that offer better energy density, safety, lifespan, and charging speed than conventional batteries. These products serve electric vehicles, consumer electronics, grid energy storage, aerospace, and medical devices, and they underpin the growing need for efficient, high-performance energy storage across sectors.

Market Overview

Two themes dominate the outlook. The first is the demand for efficient storage to support renewable energy integration and grid stability. The second is the emergence of solid-state batteries as a leading solution, helped by progress in energy density, charging speed, and commercialization.

Electric vehicles are a major source of demand because they require batteries with greater energy density, faster charging, and longer life. Recent milestones, including validation of solid-state cells and integration of high-capacity batteries into demonstration fleets, have improved range and efficiency in line with EV expectations. In October 2024, Stellantis announced that it would integrate solid-state batteries with more than 390 Wh/kg of energy density into a demonstration fleet of Dodge Charger Daytona EVs built on the STLA Large platform, with a launch scheduled by 2026.

Key Highlights from the Report

Asia Pacific held a 35.77% market share in 2024, valued at USD 694.2 million. Lithium-ion technology generated around USD 590 million in revenue in 2024, and the energy storage end-use segment is expected to reach USD 1,067.9 million by 2032. Europe is anticipated to grow at a CAGR of 7.77%, while Asia Pacific is forecast to expand at roughly 8.17% and approach USD 1,306.4 million by 2032.

Market Driver: Efficient Renewable Energy Storage

Solar and wind generation are intermittent, so reliable storage is essential for grid stability, energy availability during peak demand, and reduced dependence on fossil fuels. Improvements in storage capacity, charge-discharge efficiency, and lifecycle are enabling large-scale renewable deployments, and the need for advanced batteries to store and manage clean power keeps growing as adoption accelerates.

New business models are emerging as well. In May 2025, ABB launched Battery Energy Storage Systems-as-a-Service, a zero-capital-expenditure offering aimed at industries such as data centers and logistics. The quarterly service model covers hardware, software, maintenance, and optimization, lowering the barrier to renewable adoption.

Market Challenge: Limited Availability of Raw Materials

Lithium and cobalt are critical to advanced chemistries and are concentrated in a few geographic regions, which creates supply chain risk and price volatility. Market participants are diversifying sources, investing in mining partnerships, and developing alternative chemistries such as sodium-ion and lithium iron phosphate. Battery recycling initiatives are also expanding, helping recover valuable materials and reduce reliance on newly mined resources.

Market Trend: Adoption of Solid-State Batteries

Manufacturers are shifting toward solid-state designs as they improve energy density, charging speed, and operational efficiency. The technology is gaining traction as developers enhance thermal performance, expand temperature tolerance, and enable high-power delivery. Progress in validating large-format cells for practical applications points to more reliable, compact, and efficient storage.

In April 2025, Stellantis and Factorial Energy validated automotive-sized solid-state cells with an energy density of 375 Wh/kg. Factorial's technology supports charging from 15% to 90% in 18 minutes, operates between minus 30 and 45 degrees Celsius, and delivers up to 4C power. Stellantis plans to place the batteries in a demonstration fleet by 2026 to refine pack design, vehicle integration, range, and cost.

Segmentation Insights

By type, the market includes lithium-ion, solid-state, sodium-ion, flow, zinc-ion, and other chemistries. Lithium-ion led in 2024 with roughly USD 580 million to USD 590 million in revenue, owing to widespread adoption in electric vehicles and consumer electronics, high energy density, reliability, and an established supply chain. The report projects the lithium-ion segment to retain the largest share through 2032.

By end use, the segments are electric vehicles, consumer electronics, energy storage, uninterruptible power supply, data centers and telecommunications, and others. Energy storage held a 29.90% share in 2024, driven by renewable integration and the growing need for grid stabilization and peak load management.

Regional Analysis

Asia Pacific dominates thanks to robust manufacturing infrastructure and strategic investment in advanced battery production. Expanding domestic capacity, steady technological progress, and favorable government policies help the region meet rising demand for electric vehicles and energy storage. In September 2024, Subaru and Panasonic Energy agreed to develop next-generation cylindrical lithium-ion batteries for Subaru's battery electric vehicles, with a new factory in Oizumi, Japan, and production in Osaka targeting combined annual capacity of 20 GWh by 2030.

Europe is also on a strong growth path, backed by investment in advanced battery production and technology development, expanded domestic manufacturing, and strategic collaborations aimed at meeting demand for electric vehicles and renewable storage.

Regulatory Landscape

In the United States, the Federal Consortium for Advanced Batteries and the Department of Energy's Energy Storage Research Alliance promote innovation and strengthen domestic supply chains. In India, the Bureau of Indian Standards sets safety and EV charging standards, while the Central Pollution Control Board regulates battery waste management and recycling. In Europe, the European Commission shapes policy through the Battery Directive and the new Battery Regulation, which focus on sustainability, safety, and recycling.

Competitive Landscape

Companies are pursuing mergers, acquisitions, partnerships, and joint ventures, along with capacity expansions and new facilities, to secure supply chains, scale manufacturing, and enter new markets. Profiled players include Contemporary Amperex Technology Co., Limited, LG Energy Solution, BYD Motors Inc., Gotion, Inc., Amprius Technologies, Mitsubishi Chemical Group Corporation, IDTechEx Ltd, Sion Power Corporation, EVE Energy Co., Ltd., Samsung SDI Co., Ltd., Panasonic Energy Co., Ltd., SK Inc., QuantumScape Battery, Inc., and Solid Power Inc.

Recent developments show the pace of commercialization. In May 2024, Arkema and ProLogium exchanged a letter of intent to deepen collaboration on lithium ceramic battery materials, with a demonstration line in Taiwan and a planned gigafactory in Dunkirk, France. In November 2024, LG Energy Solution signed a five-year agreement to supply Rivian with 67 GWh of 4695 cylindrical batteries, and in December 2024 QuantumScape launched Cobra, heat treatment equipment for ceramic solid-state separator production. Samsung SDI began production of 46-series cylindrical cells in the United States in March 2025 and showcased energy storage and data center power products at InterBattery Europe 2025.

Outlook

The convergence of electrification, renewable energy growth, and rapid progress in solid-state chemistry sets the stage for sustained expansion through 2032. Companies that secure raw material supply, scale new chemistries efficiently, and align with evolving sustainability regulations will be best positioned to lead the next phase of energy storage.