Global thermal energy storage materials market report Size, Share, Growth Drivers, Trends, Opportunities & Forecast 2025–2030
Description
Global Thermal Energy Storage Materials Market Overview
The Global Thermal Energy Storage Materials Market is valued at USD 6.4 billion, based on a five-year historical analysis. This growth is primarily driven by the increasing demand for renewable energy solutions, the integration of thermal energy storage in smart grids and green building infrastructures, and the need for efficient energy management systems. The rising focus on decarbonization, grid stability, and enhancing energy efficiency across power generation, industrial, and building sectors has further propelled the market's expansion .
Key players in this market include the United States, Germany, and China, which dominate due to their advanced technological infrastructure, significant investments in renewable energy projects, and robust manufacturing and research capabilities. These countries are at the forefront of deploying large-scale thermal energy storage projects and advancing material science for improved storage performance .
In 2023, the European Union implemented the Renewable Energy Directive (Directive (EU) 2018/2001, as amended), issued by the European Parliament and the Council, mandating that at least 32% of the total energy consumption must come from renewable sources by 2030. This regulation directly supports the deployment of thermal energy storage systems by incentivizing renewable integration, driving investments in innovative storage technologies, and establishing compliance requirements for member states .
Global Thermal Energy Storage Materials Market Segmentation
By Type:
The market is segmented into four main types: Sensible Heat Storage Materials, Latent Heat Storage Materials (Phase Change Materials), Thermochemical Storage Materials, and Hy
id Materials. Sensible heat storage materials are widely used due to their cost-effectiveness and operational simplicity, especially in large-scale applications such as district heating and solar thermal plants. Latent heat storage materials are gaining traction for their high energy density and ability to maintain stable temperatures, making them suitable for building energy management and cold storage. Thermochemical storage materials are emerging as a promising solution for long-duration and high-capacity storage, particularly in industrial waste heat recovery and renewable integration. Hy
id materials are being developed to combine the advantages of different storage mechanisms, enhancing flexibility and efficiency in diverse end-use scenarios .
By End-Use:
The end-use segments include Power Generation, Building & Construction, Industrial Processes, and Transportation. Power generation is the leading segment, driven by the increasing integration of renewable energy sources into the grid and the deployment of thermal energy storage in concentrated solar power plants and grid balancing. The building and construction sector is experiencing significant growth due to the adoption of energy-efficient building standards and the use of thermal storage for heating, cooling, and peak load management. Industrial processes are increasingly utilizing thermal energy storage to optimize energy consumption, enhance process efficiency, and recover waste heat. The transportation sector is exploring innovative storage solutions, particularly for electric vehicle thermal management and cold chain logistics .
Global Thermal Energy Storage Materials Market Competitive Landscape
The Global Thermal Energy Storage Materials Market is characterized by a dynamic mix of regional and international players. Leading participants such as
enmiller Energy Ltd., Antora Energy, LUMENION GmbH, CALMAC (Trane Technologies), Cryogel Thermal Energy Systems, DN Tanks, Heliac A/S, ENERGYNEST AS, MGA Thermal Pty Ltd, Rondo Energy, Sunamp Ltd., BASF SE, Saint-Gobain, SGL Carbon SE, Honeywell International Inc., Siemens AG, 3M Company, Thermal Energy Corporation, Ice Energy, and Axiom Exergy contribute to innovation, geographic expansion, and service delivery in this space .
enmiller Energy Ltd.
2012
Rosh HaAyin, Israel
Antora Energy
2018
Sunnyvale, USA
LUMENION GmbH
2016
Berlin, Germany
CALMAC (Trane Technologies)
1947
Fair Lawn, USA
Cryogel Thermal Energy Systems
2010
Houston, USA
Company
Establishment Year
Headquarters
Group Size (Large, Medium, or Small as per industry convention)
Revenue (USD Million/Billion)
Revenue Growth Rate (%)
Market Share (%)
Installed Storage Capacity (MWh/GWh)
Number of Operational Projects
Global Thermal Energy Storage Materials Market Industry Analysis
Growth Drivers
Increasing Demand for Renewable Energy Integration:
The global push for renewable energy sources is driving the demand for thermal energy storage materials. In future, investments in renewable energy are projected to reach $500 billion, with thermal storage playing a crucial role in balancing supply and demand. Countries like Germany and China are leading this transition, with Germany's renewable energy share expected to exceed 50% of total energy consumption, necessitating efficient storage solutions to manage intermittency.
Technological Advancements in Storage Materials:
Innovations in thermal energy storage materials are enhancing efficiency and reducing costs. For instance, phase change materials (PCMs) are being developed with improved thermal conductivity, which can increase energy storage capacity by up to 30%. The global market for advanced materials is expected to grow to $150 billion in future, indicating a strong trend towards adopting these technologies in energy systems.
Government Incentives for Energy Storage Solutions:
Governments worldwide are implementing policies to promote energy storage technologies. In future, the U.S. government is expected to allocate $10 billion in tax credits and grants for energy storage projects. This financial support is crucial for accelerating the adoption of thermal energy storage systems, particularly in regions aiming to meet renewable energy targets and reduce greenhouse gas emissions.
Market Challenges
High Initial Investment Costs:
The upfront costs associated with thermal energy storage systems remain a significant barrier to market entry. For example, the installation of a large-scale thermal storage system can exceed $1 million per megawatt. This high capital requirement deters many potential investors, particularly in developing regions where funding is limited, thus slowing the overall market growth.
Limited Awareness and Understanding of Thermal Storage:
Many stakeholders, including consumers and businesses, lack sufficient knowledge about thermal energy storage technologies. A survey conducted in future indicated that over 60% of respondents were unaware of the benefits of thermal storage. This knowledge gap hinders adoption rates, particularly in regions where traditional energy sources dominate, limiting the market's potential for growth.
Global Thermal Energy Storage Materials Market Future Outlook
The future of thermal energy storage materials is promising, driven by increasing investments in energy storage technologies and a shift towards decentralized energy systems. In future, the integration of AI and IoT in energy management is expected to enhance operational efficiencies, allowing for better energy distribution and consumption. Additionally, rising consumer interest in energy independence will further propel the adoption of thermal storage solutions, creating a more resilient energy landscape.
Market Opportunities
Expansion in Emerging Markets:
Emerging markets, particularly in Asia and Africa, present significant opportunities for thermal energy storage. With a combined population of over 3 billion, these regions are increasingly investing in renewable energy infrastructure, which is projected to reach $200 billion in future, creating a robust demand for efficient storage solutions.
Development of Innovative Materials:
The ongoing research into new thermal storage materials, such as nanomaterials and advanced composites, offers substantial market potential. These innovations can enhance energy density and reduce costs, with the market for advanced materials expected to grow by $50 billion in future, providing a competitive edge for companies investing in R&D.
Please Note: It will take 5-7 business days to complete the report upon order confirmation.
The Global Thermal Energy Storage Materials Market is valued at USD 6.4 billion, based on a five-year historical analysis. This growth is primarily driven by the increasing demand for renewable energy solutions, the integration of thermal energy storage in smart grids and green building infrastructures, and the need for efficient energy management systems. The rising focus on decarbonization, grid stability, and enhancing energy efficiency across power generation, industrial, and building sectors has further propelled the market's expansion .
Key players in this market include the United States, Germany, and China, which dominate due to their advanced technological infrastructure, significant investments in renewable energy projects, and robust manufacturing and research capabilities. These countries are at the forefront of deploying large-scale thermal energy storage projects and advancing material science for improved storage performance .
In 2023, the European Union implemented the Renewable Energy Directive (Directive (EU) 2018/2001, as amended), issued by the European Parliament and the Council, mandating that at least 32% of the total energy consumption must come from renewable sources by 2030. This regulation directly supports the deployment of thermal energy storage systems by incentivizing renewable integration, driving investments in innovative storage technologies, and establishing compliance requirements for member states .
Global Thermal Energy Storage Materials Market Segmentation
By Type:
The market is segmented into four main types: Sensible Heat Storage Materials, Latent Heat Storage Materials (Phase Change Materials), Thermochemical Storage Materials, and Hy
id Materials. Sensible heat storage materials are widely used due to their cost-effectiveness and operational simplicity, especially in large-scale applications such as district heating and solar thermal plants. Latent heat storage materials are gaining traction for their high energy density and ability to maintain stable temperatures, making them suitable for building energy management and cold storage. Thermochemical storage materials are emerging as a promising solution for long-duration and high-capacity storage, particularly in industrial waste heat recovery and renewable integration. Hy
id materials are being developed to combine the advantages of different storage mechanisms, enhancing flexibility and efficiency in diverse end-use scenarios .
By End-Use:
The end-use segments include Power Generation, Building & Construction, Industrial Processes, and Transportation. Power generation is the leading segment, driven by the increasing integration of renewable energy sources into the grid and the deployment of thermal energy storage in concentrated solar power plants and grid balancing. The building and construction sector is experiencing significant growth due to the adoption of energy-efficient building standards and the use of thermal storage for heating, cooling, and peak load management. Industrial processes are increasingly utilizing thermal energy storage to optimize energy consumption, enhance process efficiency, and recover waste heat. The transportation sector is exploring innovative storage solutions, particularly for electric vehicle thermal management and cold chain logistics .
Global Thermal Energy Storage Materials Market Competitive Landscape
The Global Thermal Energy Storage Materials Market is characterized by a dynamic mix of regional and international players. Leading participants such as
enmiller Energy Ltd., Antora Energy, LUMENION GmbH, CALMAC (Trane Technologies), Cryogel Thermal Energy Systems, DN Tanks, Heliac A/S, ENERGYNEST AS, MGA Thermal Pty Ltd, Rondo Energy, Sunamp Ltd., BASF SE, Saint-Gobain, SGL Carbon SE, Honeywell International Inc., Siemens AG, 3M Company, Thermal Energy Corporation, Ice Energy, and Axiom Exergy contribute to innovation, geographic expansion, and service delivery in this space .
enmiller Energy Ltd.
2012
Rosh HaAyin, Israel
Antora Energy
2018
Sunnyvale, USA
LUMENION GmbH
2016
Berlin, Germany
CALMAC (Trane Technologies)
1947
Fair Lawn, USA
Cryogel Thermal Energy Systems
2010
Houston, USA
Company
Establishment Year
Headquarters
Group Size (Large, Medium, or Small as per industry convention)
Revenue (USD Million/Billion)
Revenue Growth Rate (%)
Market Share (%)
Installed Storage Capacity (MWh/GWh)
Number of Operational Projects
Global Thermal Energy Storage Materials Market Industry Analysis
Growth Drivers
Increasing Demand for Renewable Energy Integration:
The global push for renewable energy sources is driving the demand for thermal energy storage materials. In future, investments in renewable energy are projected to reach $500 billion, with thermal storage playing a crucial role in balancing supply and demand. Countries like Germany and China are leading this transition, with Germany's renewable energy share expected to exceed 50% of total energy consumption, necessitating efficient storage solutions to manage intermittency.
Technological Advancements in Storage Materials:
Innovations in thermal energy storage materials are enhancing efficiency and reducing costs. For instance, phase change materials (PCMs) are being developed with improved thermal conductivity, which can increase energy storage capacity by up to 30%. The global market for advanced materials is expected to grow to $150 billion in future, indicating a strong trend towards adopting these technologies in energy systems.
Government Incentives for Energy Storage Solutions:
Governments worldwide are implementing policies to promote energy storage technologies. In future, the U.S. government is expected to allocate $10 billion in tax credits and grants for energy storage projects. This financial support is crucial for accelerating the adoption of thermal energy storage systems, particularly in regions aiming to meet renewable energy targets and reduce greenhouse gas emissions.
Market Challenges
High Initial Investment Costs:
The upfront costs associated with thermal energy storage systems remain a significant barrier to market entry. For example, the installation of a large-scale thermal storage system can exceed $1 million per megawatt. This high capital requirement deters many potential investors, particularly in developing regions where funding is limited, thus slowing the overall market growth.
Limited Awareness and Understanding of Thermal Storage:
Many stakeholders, including consumers and businesses, lack sufficient knowledge about thermal energy storage technologies. A survey conducted in future indicated that over 60% of respondents were unaware of the benefits of thermal storage. This knowledge gap hinders adoption rates, particularly in regions where traditional energy sources dominate, limiting the market's potential for growth.
Global Thermal Energy Storage Materials Market Future Outlook
The future of thermal energy storage materials is promising, driven by increasing investments in energy storage technologies and a shift towards decentralized energy systems. In future, the integration of AI and IoT in energy management is expected to enhance operational efficiencies, allowing for better energy distribution and consumption. Additionally, rising consumer interest in energy independence will further propel the adoption of thermal storage solutions, creating a more resilient energy landscape.
Market Opportunities
Expansion in Emerging Markets:
Emerging markets, particularly in Asia and Africa, present significant opportunities for thermal energy storage. With a combined population of over 3 billion, these regions are increasingly investing in renewable energy infrastructure, which is projected to reach $200 billion in future, creating a robust demand for efficient storage solutions.
Development of Innovative Materials:
The ongoing research into new thermal storage materials, such as nanomaterials and advanced composites, offers substantial market potential. These innovations can enhance energy density and reduce costs, with the market for advanced materials expected to grow by $50 billion in future, providing a competitive edge for companies investing in R&D.
Please Note: It will take 5-7 business days to complete the report upon order confirmation.
Table of Contents
90 Pages
- 1. Global thermal energy storage materials Size, Share, Growth Drivers, Trends, Opportunities & – Market Overview
- 1.1. Definition and Scope
- 1.2. Market Taxonomy
- 1.3. Market Growth Rate
- 1.4. Market Segmentation Overview
- 2. Global thermal energy storage materials Size, Share, Growth Drivers, Trends, Opportunities & – Market Size (in USD Bn), 2019–2024
- 2.1. Historical Market Size
- 2.2. Year-on-Year Growth Analysis
- 2.3. Key Market Developments and Milestones
- 3. Global thermal energy storage materials Size, Share, Growth Drivers, Trends, Opportunities & – Market Analysis
- 3.1. Growth Drivers
- 3.1.1. Increasing demand for renewable energy integration
- 3.1.2. Technological advancements in storage materials
- 3.1.3. Government incentives for energy storage solutions
- 3.1.4. Rising energy costs driving storage adoption
- 3.2. Restraints
- 3.2.1. High initial investment costs
- 3.2.2. Limited awareness and understanding of thermal storage
- 3.2.3. Competition from alternative energy storage technologies
- 3.2.4. Regulatory hurdles in various regions
- 3.3. Opportunities
- 3.3.1. Expansion in emerging markets
- 3.3.2. Development of innovative materials
- 3.3.3. Partnerships with renewable energy providers
- 3.3.4. Increasing focus on sustainability and carbon reduction
- 3.4. Trends
- 3.4.1. Growing investment in energy storage technologies
- 3.4.2. Shift towards decentralized energy systems
- 3.4.3. Integration of AI and IoT in energy management
- 3.4.4. Rising consumer interest in energy independence
- 3.5. Government Regulation
- 3.5.1. Renewable Portfolio Standards
- 3.5.2. Energy Storage Mandates
- 3.5.3. Tax incentives for energy storage systems
- 3.5.4. Environmental regulations promoting clean energy
- 3.6. SWOT Analysis
- 3.7. Stakeholder Ecosystem
- 3.8. Competition Ecosystem
- 4. Global thermal energy storage materials Size, Share, Growth Drivers, Trends, Opportunities & – Market Segmentation, 2024
- 4.1. By Type (in Value %)
- 4.1.1. Sensible Heat Storage Materials
- 4.1.2. Latent Heat Storage Materials (Phase Change Materials)
- 4.1.3. Thermochemical Storage Materials
- 4.1.4. Hybrid Materials
- 4.1.5. Others
- 4.2. By End-Use (in Value %)
- 4.2.1. Power Generation
- 4.2.2. Building & Construction
- 4.2.3. Industrial Processes
- 4.2.4. Transportation
- 4.2.5. Others
- 4.3. By Application (in Value %)
- 4.3.1. Concentrated Solar Power (CSP)
- 4.3.2. District Heating & Cooling
- 4.3.3. Industrial Waste Heat Recovery
- 4.3.4. Cold Storage & Refrigeration
- 4.4. By Material Source (in Value %)
- 4.4.1. Water
- 4.4.2. Molten Salt
- 4.4.3. Phase Change Materials (PCMs)
- 4.4.4. Miscibility Gap Alloy (MGA) Materials
- 4.5. By Storage Duration (in Value %)
- 4.5.1. Short-term Storage (<8 hours)
- 4.5.2. Medium-term Storage (8-48 hours)
- 4.5.3. Long-term Storage (>48 hours)
- 4.6. By Region (in Value %)
- 4.6.1. North America
- 4.6.2. Europe
- 4.6.3. Asia Pacific
- 4.6.4. Latin America
- 4.6.5. Middle East & Africa
- 5. Global thermal energy storage materials Size, Share, Growth Drivers, Trends, Opportunities & – Market Cross Comparison
- 5.1. Detailed Profiles of Major Companies
- 5.1.1. Brenmiller Energy Ltd.
- 5.1.2. Antora Energy
- 5.1.3. LUMENION GmbH
- 5.1.4. CALMAC (Trane Technologies)
- 5.1.5. Cryogel Thermal Energy Systems
- 5.2. Cross Comparison Parameters
- 5.2.1. Revenue (USD Million/Billion)
- 5.2.2. Market Share (%)
- 5.2.3. Installed Storage Capacity (MWh/GWh)
- 5.2.4. Number of Operational Projects
- 5.2.5. Geographic Presence (Number of Countries/Regions)
- 6. Global thermal energy storage materials Size, Share, Growth Drivers, Trends, Opportunities & – Market Regulatory Framework
- 6.1. Building Standards
- 6.2. Compliance Requirements and Audits
- 6.3. Certification Processes
- 7. Global thermal energy storage materials Size, Share, Growth Drivers, Trends, Opportunities & – Market Future Size (in USD Bn), 2025–2030
- 7.1. Future Market Size Projections
- 7.2. Key Factors Driving Future Market Growth
- 8. Global thermal energy storage materials Size, Share, Growth Drivers, Trends, Opportunities & – Market Future Segmentation, 2030
- 8.1. By Type (in Value %)
- 8.2. By End-Use (in Value %)
- 8.3. By Application (in Value %)
- 8.4. By Material Source (in Value %)
- 8.5. By Storage Duration (in Value %)
- 8.6. By Region (in Value %)
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