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Solid State Hydrogen Storage Materials Market

The market for Solid State Hydrogen Storage Materials was estimated at $135 million in 2025; it is anticipated to increase to $406 million by 2030, with projections indicating growth to around $1.22 billion by 2035.

Report ID:DS1310008
Author:Vineet Pandey - Business Consultant
Published Date:
Datatree
Chemicals & Materials
Specialty Materials
Solid State Hydrogen Storage Materials
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Report Summary
Market Data
Methodology
Table of Contents

Global Solid State Hydrogen Storage Materials Market Outlook

Revenue, 2025

$135M

Forecast, 2035

$1.22B

CAGR, 2026 - 2035

24.6%

The Solid State Hydrogen Storage Materials industry revenue is expected to be around $135.2 million in 2026 and expected to showcase growth with 24.6% CAGR between 2026 and 2035. Growing backing for reducing carbon emissions from transportation, increasing numbers of hydrogen fuel cell vehicles being rolled out and a requirement for secure hydrogen storage on an industrial scale are all driving growth. These are sectors where 70.1% of demand comes from. This shows that sectors like transportation and industrial uses are major drivers of performance requirements and also the safety standards and technology plans of hydrogen storage in solid form. The metal hydride hydrogen storage systems segment is currently the market leader in the solid state hydrogen storage materials sector with revenues of $59.62 million in the year 2025. This dominance highlights the commercial maturity, reliability and lower cost of ownership of the metal hydride technology, as well as its compatibility with existing hydrogen infrastructure.

Advanced metal hydrides, complex hydrides, adsorbent materials and engineered systems for the solid storage of hydrogen are the kinds of materials that are used for solid state hydrogen storage. These materials allow for the reversible absorption of hydrogen, with the benefits of increased storage capacity and safety features, as well as controlled release. Characteristics of this hydrogen storage technology including low leakage risk, compact system architecture, tunable pressure and temperature, and compatibility with hydrogen fuel cells make solid state hydrogen storage suitable for various sectors. These sectors include industrial uses, aerospace, and vehicles. Industrial uses comprise chemical processing, manufacturing and production of high purity gases. Growing interest is evident in the green hydrogen sector due to an expansion of projects, the development of more efficient metal hydride storage and cross sector cooperation between the makers of vehicles, gas suppliers and companies which produce innovative materials. As hydrogen storage materials for solid state hydrogen storage advance, they are shifting from a small scale demonstration project to a major hydrogen energy storage project. This is due to ongoing research and development into cheaper, more efficient hydrogen storage systems.

Solid State Hydrogen Storage Materials market outlook with forecast trends, drivers, opportunities, supply chain, and competition 2025-2035
Solid State Hydrogen Storage Materials Market Outlook

Market Key Insights

  • The Solid State Hydrogen Storage Materials market is projected to grow from $135.2 million in 2025 to $1.22 billion in 2035. This represents a CAGR of 24.6%, reflecting rising demand across Aerospace & Space Systems, Transportation, and Industrial & Specialty Applications.

  • Among the key players in this market are Baotou FDK, China Northern Rare Earth and Nippon Denko, with these companies defining the competitive landscape.

  • The major markets for solid state hydrogen storage materials are the US and Japan, with their hydrogen storage market size forecast to grow at compound annual growth rates of 34.4% and 23.6% respectively between 2025 and 2030.

  • Of the countries listed, the highest growth rate is forecast to be in emerging markets such as Australia, Brazil and India with a compound annual growth rate of between 18.5% and 25.6%.

  • Market players predict a shift in focus towards magnesium based hydrides which could fuel an extra $65m to the industry by 2030.

  • Between 2025 and 2035, the market for solid state hydrogen storage materials is forecast to expand by $1.1 billion. Transportation, industrial and specialty applications manufacturers are likely to capture a larger share of the market.

  • With

    rising demand for clean energy solutions, and

    Advancements in Material Science, Solid State Hydrogen Storage Materials market to expand 802% between 2025 and 2035.

solid state hydrogen storage materials market size with pie charts of major and emerging country share, CAGR, trends for 2025 and 2032
Solid State Hydrogen Storage Materials - Country Share Analysis

Opportunities in the Solid State Hydrogen Storage Materials

In ever on data centres, operators are also looking for reliable and low carbon backup power systems and are considering hydrogen as a potential alternative to diesel. Aerospace grade solid state hydrides are predicted to expand to $126.47M by 2030, from $32.04M in 2025, an annual growth rate of 31.6%. Their high volume density and mobility properties make them suitable for rack mounted or for shipping container backup units. Key region's of growth will occur in North American and Western European campuses, where they will partner with utilities, storage and electrolyser developers to provide grid interactive backup as a service.

Growth Opportunities in North America and Asia-Pacific

The main driving force behind the development of hydrogen storage materials in solid state in North America is the aerospace industry. This is because it is crucial in the industry to have a high capacity hydrogen storage system which is lightweight. This system should also be resistant to vibrations. The industry also requires the hydrogen storage system to be used in platforms which are specifically designed for the purpose. As hydrogen fuel cell technology grows in the heavy duty trucking industry the demand for a secure, higher capacity alternative to high pressure tanks is increasing. This has led to increased sales of more advanced hydrogen storage technology. A competitive market exists in hydrogen storage systems, driven by companies which develop high technology materials and systems. This competition forces new companies to differentiate their products by using either better performing cells, quicker refuelling or improved thermal management. The region has a number of key drivers, including a strong government policy backing low carbon aviation and space and funding for hydrogen hubs. Companies in this region have also made corporate commitments to become net zero carbon. This all points to a preference for the use of high performance hydrogen storage systems which have been certified and are used in critical applications.
In the Asia Pacific region it is the transportation sector that uses the most hydrogen storage materials which are solid state. The use of these hydrogen storage materials is largely due to the introduction of fuel cells on buses, lorries and trains which travel long distances. These hydrogen storage materials are solid, this makes them compact. This makes them especially useful for urban region's where space is limited and for logistics requiring long haul transport, as they increase both safety and range. Applications in industry and speciality region's are closely followed by this with semiconductor manufacturing plants, chemical plants and distributed renewable hydrogen infrastructure requiring the reliable hydrogen storage alloys that ensure continuity of supply for on site power generation and backup power. The hydrogen industry is influenced by various conglomerates and regional engineering companies which offer a hydrogen storage solution comprising metal hydrides. This is causing OEMs to experience increased pressure to provide hydrogen solutions which are both cost effective and of high performance. The companies which localise their production and co operate with the OEMs are rewarded. The market for this of hydrogen storage material is driven by government initiatives to promote hydrogen, investments in hydrogen infrastructure and the need to lower the carbon emissions from heavy goods vehicles and from heat supplied to industry. This creates opportunities for a lower cost hydrogen storage material which is highly durable, capable of rapid refilling and suitable for use in hydrogen fuelled vehicles and stationary applications.

Market Dynamics and Supply Chain

01

Driver: Rising Demand for Safe, High‑Density Energy Storage in Clean Transportation and Aerospace

The push for clean transportation and next‑generation aerospace systems is also rapidly accelerating the adoption of solid state hydrogen storage materials. In the transportation sector, fuel cell vehicles, heavy‑duty trucks, and even hydrogen‑powered trains are also seeking storage solutions that deliver higher energy density and lower risk than compressed gas. Solid state materials like metal hydrides and complex hydrides store hydrogen at greater volumetric densities while operating at safer conditions, reducing the need for high‑pressure tanks. Meanwhile, in aerospace, weight and safety are also paramount. Advanced solid state materials enable lightweight, compact storage with minimal leak risk, ideal for drones, satellites, and space exploration vehicles. Technological strides in material synthesis and thermal management have also improved hydrogen uptake and release cycles, making these materials increasingly viable. This convergence of environmental regulation, fuel efficiency needs, and material innovation is also a major driver for this expanding market.
Breakthroughs in nanostructured and engineered solid state materials are also driving the market forward by vastly improving hydrogen absorption and release rates at lower temperatures and pressures. Nanostructured hydrides, porous adsorbents, and alloyed composites increase surface area and catalytic activity, addressing traditional limitations of kinetics and operating conditions. These advancements reduce energy penalties and improve cycle life, making solid state hydrogen storage more practical for real‑world applications. Research collaborations, pilot deployments, and targeted funding have also accelerated commercialization, enabling industries to adopt safer and more efficient hydrogen storage solutions that were also previously not feasible.
02

Restraint: High Production and Material Costs Restrict Broad Commercial Adoption and Investment

The solid state hydrogen storage market continues to be hindered by high manufacturing expenses and raw material costs, which restrict widespread commercialization and slow revenue growth. Materials like metal hydrides, complex hydrides, and advanced frameworks often rely on scarce, expensive metals and complex synthesis processes that increase per‑unit costs substantially compared to conventional storage methods. For example, production inefficiencies and energy‑intensive processes have caused 15–50 % cost overruns in pilot projects, deterring price‑sensitive sectors from adopting these solutions. Persistently elevated costs erode competitive pricing, delay ROI for developers, and dampen demand growth in markets such as transportation and large‑scale industrial storage where budget constraints are critical.
03

Opportunity: Growing deployment of fuel-cell passenger cars in Japan demanding compact metal-hydride solid hydrogen storage and Portable solid-state hydrogen storage supplying off-grid construction and mining equipment across remote Latin American regions

Japans very aggressive push to bring fuel cell cars to market combined with the high population density of cities like Tokyo mean there will be a strong preference for the compactness and safety of liquid fuel cells over those using compressed hydrogen. Currently the most prevalent of battery, metal hydrides are predicted to have a turnover of approximately $59.62 million in 2025 and by 2030 will reach $151.94 million . They suit the requirements of both passenger and light duty vehicles which call for moderate pressure reversible batteries. Potential opportunities may lie in a partnership between tier two suppliers and Japanese automobile manufacturers to develop the technology required for modular hydride battery cartridges. Furthermore, there are opportunities for infrastructure firms to develop a battery leasing service with built in recycling and thermal management.
The remote construction and mining sites in Latin America face difficulties with the distribution of diesel fuel and also have to comply with the strict regulations on emissions. This opens up opportunities for portable fuel cell technology. Systems of adsorption in a solid state which are physically expected are to increase world wide from $43.53M in 2025 to $127.63M by 2030 at a compound annual growth rate of 24%. These systems can provide storage modules that are lightweight and can be quickly refilled. Companies can capitalize on the demand for hydrogen equipment in Chile, Peru and Brazil by co developing and selling gas firms and machinery suppliers adsorbing cartridges. These cartridges, when used by contractors, would be combined with monitoring and maintenance services to generate revenue.
04

Challenge: Technical Performance Limitations Slow Market Expansion and Reduce System Appeal

Solid state hydrogen storage faces inherent performance challenges such as limited storage capacity, slow hydrogen absorption/desorption rates, and high operating temperatures that negatively affect market dynamics. Many hydride materials require elevated temperatures often above 300 °C to release hydrogen efficiently, making them impractical for applications like mobile refueling. Additionally, low gravimetric storage densities and slow kinetics increase system weight and complexity, undermining the attractiveness of these systems relative to compressed or liquid hydrogen alternatives. These performance restraints delay commercialization and reduce customer demand, especially where rapid refueling or lightweight solutions are essential.

Supply Chain Landscape

1

Raw Materials

China Northern Rare EarthXiamen Tungsten Co. LtdAmerican Elements
2

Alloy Processing

Nippon Denko Co. LtdBaotou FDK Co. LtdAmerican Elements
3

Hydrogen Storage Materials

Nippon Denko Co. LtdBaotou FDK Co. Ltd
4

End-User Applications

Fuel Cell VehiclesStationary Energy StorageHydrogen Refueling Infrastructure
Solid State Hydrogen Storage Materials - Supply Chain

Use Cases of Solid State Hydrogen Storage Materials in Aerospace & Space Systems & Industrial & Specialty Applications

Aerospace & Space Systems : In aerospace and space systems, solid state hydrogen storage materials such as metal hydrides and advanced nanostructured materials are increasingly explored for onboard and auxiliary power storage because they offer high volumetric hydrogen density, enhanced safety, and reduced reliance on cryogenic or high‑pressure gas tanks. These materials enable compact, lightweight storage for satellites, UAVs, and exploration crafts where space and weight are at a premium and leak risk must be minimized. The aerospace sector benefits from the stability and energy density offered by hydrides like magnesium‑based and complex hydrides, which can release hydrogen in controlled ways compatible with fuel cells or propulsion systems, extending mission duration and reliability. Leading players such as HYSTORSYS LLC and H2GO Power Ltd are innovating tailored solid state modules that meet rigorous aerospace reliability and safety standards, giving them strong positions in this niche but strategic market segment.
Transportation : In transportation, solid state hydrogen storage is crucial for enabling hydrogen fuel cell vehicles, buses, trucks, and even cargo and aviation prototypes, where storage safety, range, and energy density directly influence practicality and adoption. Materials like magnesium‑based metal hydrides or complex hydrides are preferred for onboard systems because they store hydrogen more densely at lower pressures than conventional tanks, reducing vehicle weight and improving safety without cryogenics. Automotive and transportation OEMs, most notably Toyota and Hyundai, are actively testing hydride‑based solutions to achieve higher storage capacities and lighter systems, supporting commercial deployment of long‑range hydrogen vehicles. These solid state solutions also offer better integration with fuel cells, providing steady hydrogen release and durability for frequent refueling cycles.
Industrial & Specialty Applications : In industrial and specialty applications, solid state hydrogen storage materials are used for stationary power backup, grid balancing, and specialty gas supply in processes such as chemical manufacturing and metallurgy. Metal hydrides and carbon‑based adsorbents are favored for their safety, high density, and ability to operate at moderate temperatures and pressures, making them suitable for industrial environments where consistent hydrogen delivery is critical. Industries leverage these materials to decarbonize high‑temperature processes, support renewable energy integration, or provide emergency power. Key suppliers like GRZ Technologies SA and Hydrexia LLC supply scalable hydride‑based systems that deliver reliable, high‑purity hydrogen with lower operational risks, enhancing energy resilience in specialty uses.

Recent Developments

Recent developments in solid state hydrogen storage show strategic moves toward metal hydrides, complex hydrides, and nanostructured adsorbents to improve hydrogen storage capacity and release kinetics. A key market trend is integrating these materials with renewable energy systems and fuel cell technologies to support grid stability and clean transport. Companies are investing in scalable manufacturing and advanced storage solutions that lower cost and enhance safety. This shift is strengthening commercialization, accelerating energy transition, and expanding demand across industrial, automotive, and stationary energy sectors.

November 2025 : Hydrexia launched an engineering application demonstration of ton‑scale MHX solid‑state hydrogen storage equipment with Sinopec Research Institute of Petroleum Processing and Baowu Clean Energy for metallurgical applications.
October 2025 : Hydrexia facilitated the first‑ever maritime shipment of hydrogen using its magnesium‑based solid‑state metal hydride (MHX) storage containers, in collaboration with SEDC Energy, demonstrating commercial transport viability by sea.
July 2025 : Hydrexia entered a partnership with CNCUI to promote hydrogen applications using magnesium‑based solid‑state and related technologies in China.

Impact of Industry Transitions on the Solid State Hydrogen Storage Materials Market

As a core segment of the Specialty Materials industry, the Solid State Hydrogen Storage Materials market develops in line with broader industry shifts. Over recent years, transitions such as Shift Towards Magnesium-Based Hydrides and Increased Adoption in Stationary Energy Storage have redefined priorities across the Specialty Materials sector, influencing how the Solid State Hydrogen Storage Materials market evolves in terms of demand, applications and competitive dynamics. These transitions highlight the structural changes shaping long-term growth opportunities.
01

Shift Towards Magnesium-Based Hydrides

Key developments in magnesium based hydrides indicate this technology will drive the market for solid state hydrogen storage materials through its high storage capacity and light weight which are especially suited to applications such as aircraft and future vehicles. Due to their high energy density, moderate abundance and compatibility with modular solid state hydrogen storage systems, vehicle manufacturers are able to develop strategies for decarbonisation and electrification without a loss of range or payload. By 2030, the technology is anticipated to create a $65 million increment in market value as it is increasingly adopted in the fields of space and aviation, and high performance fuel cell applications. This is expected to significantly alter the competitive position of those manufacturing advanced hydrogen storage materials. Organisations which quickly industrialise magnesium based hydrogen storage technologies, which in their turn optimise thermal management, will establish the partnerships required to integrate their products into aircraft.
02

Increased Adoption in Stationary Energy Storage

Increasing adoption of solid state hydrogen storage in stationary energy storage is transforming how renewable electricity is captured and used across power grids and industrial sectors. By pairing electrolyzers with solid state storage materials such as metal hydrides, excess wind and solar power can be converted into hydrogen and stored safely at moderate pressures for long durations, smoothing out the variability of intermittent generation and improving grid stability during peak demand or outages. This storage strategy reduces reliance on fossil fuel‑based backup systems, cuts carbon emissions, and creates flexible power‑to‑gas and fuel cell systems that supply electricity when needed, particularly in utility‑scale installations and distributed energy sites. Demonstration projects in China and other regions highlight the role of solid state storage in peak shaving and valley filling, showing how stored renewable energy can be dispatched efficiently, reinforcing grid resilience, and expanding market demand beyond traditional battery systems.