Solid State Battery Market

The market for Solid State Battery was estimated at $268 million in 2025; it is anticipated to increase to $1.28 billion by 2030, with projections indicating growth to around $6.14 billion by 2035.

Report ID:DS2405005

Author:Chandra Mohan - Sr. Industry Consultant

Published Date:August 2025

Datatree

Energy & Power

Battery

Solid State Battery

Customization Available

Solid State Battery - 2025-2035

Market Outlook
Market Key Insights
Growth Opportunity
Market Dynamics
Application
Recent Development
Impact Analysis

Report Summary

Market Data

Methodology

Table of Contents

Report Summary

Market Data

Methodology

Table of Contents

Global Solid State Battery Market Outlook

Revenue, 2025

$268M

Forecast, 2035

$6.14B

CAGR, 2026 - 2035

36.8%

The Solid State Battery industry revenue is expected to be around $267.5 million in 2026 and expected to showcase growth with 36.8% CAGR between 2026 and 2035. The industry is poised to take advantage of a key market opportunity in solid state batteries, which represent a significant step forward in the development of next generation battery technology. Automotive manufacturers and consumer electronics companies alike are increasingly interested in these batteries due to their superior safety and performance. Growing demand is driven by need for improved battery safety, compact designs and also by the need to reduce emissions as set out in government regulations. The market in thin film batteries is primarily driven by consumer electronics and electric vehicles with these accounting for around 84.4% of application revenue. In terms of technology, thin film technology leads the thin film battery competitive landscape, a fact which should reach $228.81 million by 2025. This demonstrates that thin film battery technology has reached maturity in a variety of fields including miniaturised devices and niche applications.

Advanced battery technology is represented by the term Solid State Battery. It comes equipped with a of electrolyte which is solid not only liquid or gel, this allows the battery a greater power to size ratio, faster charging and longer usage before the battery fails. It is also known for producing much fewer safety risks. Consumer electronics, electric vehicles and industrial IoT devices are increasingly being provided with thin film and lithium solid state battery designs. The benefits offered by these batteries over standard lithium ion systems include increased safety and reliability. Key trends in the market at the present time are observed in accelerated investment in research and development for the manufacturing process, relationships between cell makers and material suppliers becoming more strategic and growing interest from companies in using solid state batteries in high value consumer goods and electric vehicles.

Solid State Battery market outlook with forecast trends, drivers, opportunities, supply chain, and competition 2025-2035 — Solid State Battery Market Outlook

Market Key Insights

The Solid State Battery market is projected to grow from $267.5 million in 2025 to $6.14 billion in 2035. This represents a CAGR of 36.8%, reflecting rising demand across Electric Vehicles, Consumer Electronics, and Medical Devices.
QuantumScape, Solid Power, and Samsung SDI are among the leading players in this market, shaping its competitive landscape.
Asia is expected to experience the most rapid growth in the lithium ion battery market, with China and Japan being its leading markets. These two countries are expected to have growth rates of 35.3% and 51.5% respectively between 2025 and 2030.
Markets such as India, Vietnam and Saudi Arabia are expected to experience the strongest growth with a compound annual growth rate between 27.6% and 38.3%.
Transition like Shift Toward Sulfide-Based Electrolytes is expected to add $272 million to the Solid State Battery market growth by 2030.
The Solid State Battery market is set to add $5.9 billion between 2025 and 2035, with manufacturer targeting Consumer Electronics & Medical Devices Application projected to gain a larger market share.
With
accelerating ev adoption and breakthroughs in energy density and safety technologies, and
Growing Demand for Miniaturized, High‑Performance Electronics Enabled by Solid‑State Battery Innovation, Solid State Battery market to expand 2195% between 2025 and 2035.

Solid State Battery - Country Share Analysis

Opportunities in the Solid State Battery

American high end vehicle manufacturers were the first to use the new technology of lithium ion batteries in solid state form. The advantages of these batteries are greater range, faster recharging, and enhanced crash protection for vehicles such as SUVs and crossovers. High end products enable companies to absorb more expensive batteries, and in doing so, these businesses validate their large scale manufacturing processes. Bulk and multi layer cell technology will capture most of the industry's value. It is also expected to grow the fastest globally from $28.9M in 2025 to $481.7M by 2030, and will give North America's gigafactories and EV manufacturers with premium platforms a significant advantage.

Growth Opportunities in Asia-Pacific and North America

In the Asia Pacific the primary drivers for the development of the Solid State Battery will be consumer electronics and electric vehicles. These industries demand high density energy, fast charging capabilities and safety features for their batteries. Using existing infrastructure for electric vehicles which run long distances and high end mobile phones the key opportunities are formed. Also there will be manufacturing plants near the renewable energy sources which store electricity. With growing competition from regional car manufacturers, established battery companies and new battery firms, there is increasing patent activity, pilot production and automotive partnerships sought after. The key drivers behind the adoption of lithium metal anode batteries include the government backing of local battery cell production, rapid growth of 5G and IoT technology and also the local engineering and manufacturing capabilities. Governments are pushing for more electric vehicles and other devices. Mobile devices and electric cars will be the first to use lithium metal batteries.

The main factors driving the Solid State Battery market in North America are electric vehicles, aerospace and defence, grid level energy storage, in which reliability, the lifecycle cost and safety are of utmost importance over the output. The companys key opportunities include the development of electric vehicle packs using solid state battery technology for high performance and luxury car markets, the integration of advanced battery technology in large scale energy storage projects and commercial power systems for remote communities, and the manufacture of highly efficient battery packs for the defence, aerospace and medical industries. The development of solid state batteries is being influenced by battery technology developers as well as established automotive firms which have a vertically integrated business model. Furthermore, military and medical power systems specialists are also entering the market. These groups are all competing for joint partnerships or long term offtake agreements. Key drivers are the growing market for next generation batteries that are incentivised by high end user demand for superior safety and operational resilience. Additionally, there are domestic battery supply chain incentives, strong institutional investment and venture capital, and a trend towards decarbonisation of the economy through government policy.

Market Dynamics and Supply Chain

Driver: Accelerating EV Adoption and Breakthroughs in Energy Density and Safety Technologies

The rapid shift toward electrified transportation and the push for batteries with significantly higher energy density and safety profiles are also critical, intertwined drivers of the solid‑state battery market. The growing global demand for long‑range electric vehicles is also encouraging automakers to seek alternatives to conventional lithium‑ion cells that can also deliver greater range and faster charging, while improving safety by eliminating flammable liquid electrolytes. Solid‑state designs with lithium‑metal anodes and advanced solid electrolytes are also enabling breakthroughs in energy density, reducing weight and extending vehicle range, which appeals to both OEMs and consumers. Parallel advancements in materials science and interface engineering are also overcoming historical challenges such as ionic conductivity and dendrite formation, making these batteries more viable for commercial production. This convergence of electrification trends and technological progress is also accelerating investment, partnerships, and pilot programs across major automotive and technology firms aiming to make high‑performance solid‑state batteries a reality.

The trend toward smaller, more powerful consumer and medical devices is also another key driver of the solid‑state battery market. As wearable tech, IoT gadgets, and implantable medical devices proliferate, there is also increasing demand for compact energy solutions that deliver longer life, faster charging, greater safety, and higher energy density in constrained form factors. Solid‑state batteries, especially thin‑film and solid‑electrolyte micro‑batteries, are also well suited to miniaturized applications because they eliminate liquid electrolytes, reducing leakage risks and enabling thinner, more reliable cells. Continued R&D to optimize solid electrolyte materials for portable power applications is also expanding their appeal in next‑generation electronics, driving growth beyond traditional automotive sectors.

Restraint: High Production Costs and Complex Manufacturing Processes Limit Market Expansion

One of the most significant restraints for the solid state battery market is the high cost of production and intricate manufacturing requirements that increase unit prices and diminish demand in cost‑sensitive segments like mass‑market EVs and consumer electronics. Manufacturing solid electrolytes and ensuring stable electrode interfaces demand sophisticated processes and specialized equipment, often costing multiple times more than conventional lithium‑ion cells, which inhibits revenue growth and slows purchase decisions by large OEMs. These elevated costs also reduce profitability for startups and deter broader industry investment, keeping solid‑state batteries confined largely to premium applications and restricting overall market penetration.

Opportunity: Integration of bulk solid-state batteries into grid-scale renewable storage across Germany’s industrial heartlands and Adoption of thin-film solid-state microbatteries for wearable medical sensors in Japan’s aging society

With one of the worlds most aggressive renewable programmes and substantial energy intensive manufacturing sector, Germany offers an ideal test environment for large scale solid state batteries which have the potential to meet the stringent requirements of long cycle life and safety. By placing large scale battery production facilities in close proximity to wind farms and solar parks, the need for long term energy storage can be met in industrial power networks, in hydrogen plants and data centres. Globally, bulk technologies are anticipated to increase at a compound annual growth rate of approximately 75.5% up to 2030. This will lead to an increase in demand for stationary energy storage across Europe, particularly in Germany. It is expected that the European demand for bulk cells will be largely driven by this need for stationary energy storage.

Japans ageing population has created a requirement for continuous health monitoring wearables. These devices must be durable, long lasting and extremely thin to allow for the wearer to move about unobtrusively. Currently, lithium ion coin cells are not only reliable for powering implant adjacent devices such as skin patches and smart hearing aids. Thin film solid state microbatteries are suited to such applications. Industry figures such as medical devices and electronics are in partnership to develop specific products for application. The global thin film industry is forecast to grow from approximately USD 228.8 million in 2025 to around USD 747.1 million in 2030 at a CAGR of 26.7%, with the health wearable technology sector being the market which is expanding most rapidly within thin film applications.

Challenge: Technical Scalability Challenges and Limited Large‑Scale Production Capabilities

The solid state battery industry continues to face scalability challenges due to technical complexity and immature high‑volume manufacturing infrastructure, which slows the transition from prototype to mass production. Consistent quality control across millions of cells remains difficult because many manufacturers lack fully developed gigafactory‑level facilities optimized for solid electrolyte integration. This limitation can lead to lower production yields and supply shortages, delaying delivery timelines and dampening market demand as major customers delay adoption until reliable large‑scale production is demonstrated.

Supply Chain Landscape

Solid Electrolyte Materials

IlikaSolid Power

Solid State Battery Cells

QuantumScapeProLogium

EV Battery Pack Systems

BrightVoltSamsung SDI

End-Use Energy Storage

Electric vehiclesConsumer electronicsGrid storage

Solid Electrolyte Materials

IlikaSolid Power

Solid State Battery Cells

QuantumScapeProLogium

EV Battery Pack Systems

BrightVoltSamsung SDI

End-Use Energy Storage

Electric vehiclesConsumer electronicsGrid storage

Solid State Battery - Supply Chain

Use Cases of Solid State Battery in Electric Vehicles & Medical Devices

Electric Vehicles : In electric vehicles, lithium‑metal solid‑state batteries with solid electrolytes are emerging as the preferred type due to their higher energy density, faster charging, enhanced safety, and broader operating range compared with liquid‑electrolyte lithium‑ion packs. These batteries can significantly extend driving range and reduce weight, making them ideal for EV powertrains. Major players such as Toyota, BMW, Volkswagen, Solid Power and Hyundai are advancing commercial readiness, leveraging strategic partnerships and pilot programs to bring solid‑state technology to production vehicles.

Consumer Electronics : In consumer electronics, solid‑state chip batteries and thin‑film solid‑state types are increasingly used in wearables, smartphones and portable devices, as they offer compact form factors, improved safety and longer cycle life than traditional lithium‑ion cells. Their solid electrolytes eliminate leakage risks and enable thinner designs, which is crucial for sleek consumer products. Leading technology firms like Samsung SDI, LG Energy Solution, ProLogium and A123 Systems are investing heavily in solid‑state solutions to serve next‑generation gadgets with better battery life and performance.

Medical Devices : For medical devices, especially implantable and wearable health technologies, solid‑state batteries provide critical benefits including high reliability, biocompatibility, long lifespan and zero risk of toxic electrolyte leakage. These attributes make them suitable for pacemakers, neurostimulators and similar life‑critical applications where consistent performance over years is essential. The absence of flammable liquid electrolytes enhances safety in sensitive medical settings. Manufacturers and regulatory approvals are accelerating adoption in advanced healthcare equipment.

Recent Developments

Recent developments in solid state battery technology show significant progress in energy density improvements, solid electrolyte stability, and commercialization efforts. Automakers and tech firms are advancing prototype testing, targeting faster charging and enhanced safety performance for electric vehicles and portable electronics. A key market trend is the shift from lab‑scale breakthroughs toward scalable manufacturing and mass production readiness, as companies optimize materials and interfaces to reduce costs. These moves are strengthening battery innovation and fueling broader adoption across industries.

January 2026 : ProLogium and FEV showcased a solid‑state lithium ceramic EV battery module at CES 2026, featuring high energy density and fast‑charge capability, reinforcing the company’s push toward scalable commercial solid‑state EV solutions.

October 2025 : Ilika completed commissioning of its automated Goliath pilot production line in the UK, enabling delivery of larger solid‑state battery prototypes to customers and improving manufacturing yield ahead of commercialization.

July 2025 : ProLogium unveiled its fourth‑generation superfluidized inorganic solid‑state electrolyte, achieving high ionic conductivity and addressing key challenges in solid‑state battery performance.

Impact of Industry Transitions on the Solid State Battery Market

As a core segment of the Battery industry, the Solid State Battery market develops in line with broader industry shifts. Over recent years, transitions such as Shift Toward Sulfide-Based Electrolytes and Increased Focus on Fast-Charging Solutions have redefined priorities across the Battery sector, influencing how the Solid State Battery market evolves in terms of demand, applications and competitive dynamics. These transitions highlight the structural changes shaping long-term growth opportunities.

Shift Toward Sulfide-Based Electrolytes

The adoption of sulphur based electrolytes is likely to be a key growth driver for the Solid State Batteries market. By 2030, this could lead to a boost of approximately $250 million in the markets overall value. Advances in solid state electrolytes based on sulfides have the ability to enhance fast recharging capabilities and higher energy density. This is due to superior ionic conductivity as well as increased safety when compared to conventional polymer and liquid systems. These features are required for next generation energy storage solutions and electric vehicles. This development positions solid state batteries as a viable alternative to lithium ion batteries, particularly in EVs and grid storage, where safety and reliability are essential. As leading battery makers begin to use sulfide based materials in their products this technology is expected to bring down the cost of batteries, allow for more widespread adoption and expand the automotive and high performance battery markets.

Increased Focus on Fast-Charging Solutions

The increased focus on fast‑charging solutions in solid state battery research is reshaping expectations across key industries, especially electric vehicles. Automakers and battery developers are intensifying efforts to reduce recharge times, addressing a primary barrier to EV adoption long charging waits. If solid state cells can reliably charge to 80 % in minutes rather than hours, range anxiety will drop and EVs will more closely rival the convenience of gasoline vehicles. This transition also influences charging infrastructure planning, as ultra‑fast capable batteries can better leverage high‑power charging stations. In consumer electronics, faster charging solid state cells could enable all‑day use with minimal downtime, benefiting premium smartphones and wearables. Early pilot programs and partnerships between OEMs and materials startups suggest that improvements in ion transport and electrode interface design are critical steps toward this industry‑wide shift.