熱エネルギー貯蔵市場　2026-2036年

最新の調査によると、世界の熱エネルギー貯蔵市場の規模は2025年時点で65億米ドルと評価されました。同市場は、2026年の推定71億米ドルから2036年には162億米ドルに成長し、2026年から2036年までの予測期間における年平均成長率（CAGR）は8.6%に達するとDataNext Researchでは予測しています。熱エネルギー貯蔵（TES）とは、加熱、冷却、発電、または産業プロセスでの利用を目的として熱エネルギーを蓄えるシステムを指します。貯蔵には顕熱、潜熱、または熱化学反応が利用されますが、その手法の選択は、温度範囲、貯蔵期間、サイクル要件、利用可能なスペース、および最終用途によって決定されます。

エネルギーの需要と供給のタイミングの不一致が拡大する中、熱エネルギー貯蔵（TES）の重要性が高まっています。太陽光発電は日中には豊富に得られますが日没後は利用できず、また冷暖房の負荷変動のピークと再生可能エネルギーによる発電のピークが一致しないことも少なくありません。熱エネルギー貯蔵を活用することで、エネルギー利用のタイミングをずらしたり、電力需要のピークを抑制したり、産業用熱供給を安定化させたり、さらには発電設備や地域エネルギー供給設備の稼働効率を向上させたりすることが可能になります。そのシステムは、冷水タンクや氷蓄熱から、溶融塩設備、相変化材料（PCM）、充填層、コンクリートやセラミックなどの蓄熱媒体、さらには長期間にわたってエネルギーを保持できる熱化学システムに至るまで、多岐にわたります。

市場の主なハイライト：

• 2026年、欧州は世界の熱エネルギー貯蔵市場において最大のシェアを占める見込みです。これは、厳格な脱炭素化目標、野心的な再生可能エネルギー導入計画、そして自治体や産業部門にわたる確立された地域熱供給インフラが市場を牽引しているためです。
• アジア太平洋地域は、予測期間中に最も高い年平均成長率（CAGR）を記録すると予測されています。その要因としては、中国やインドにおける集光型太陽熱発電（CSP）の急速な導入、再生可能エネルギーインフラへの政府補助金、電力網の安定性に対する懸念の高まり、および産業用製造施設の拡大が挙げられます。
• 技術別では、2026年時点で顕熱貯蔵が市場の最大シェアを占める見通しです。これは、集光型太陽熱発電所での実証された有効性、溶融塩や水タンクの確立された生産インフラ、および地域エネルギーシステムでの広範な利用が背景にあります。
• 技術別では、熱化学貯蔵が予測期間中に最も急速な成長を遂げると予想されています。その要因は、優れたエネルギー密度、熱損失を最小限に抑えた長期間（季節間）の貯蔵能力、および高度な反応性材料への研究投資の増加にあります。
• 用途別では、2026年の熱エネルギー貯蔵システム市場全体において発電分野が優位を占める見込みです。これは、集光型太陽熱発電施設における溶融塩貯蔵の大規模な導入と、必要に応じて供給可能な（ディスパッチャブルな）再生可能エネルギー発電への需要の高まりによるものです。
• エンドユーザー別では、2026年の熱エネルギー貯蔵システム市場全体において、商業・産業部門が最大のシェアを占める見通しです。これは、大規模な製造業務への導入、主要施設運営者による統合エネルギー管理への要求、およびエネルギー多消費型プロセスにおける経済的妥当性が推進力となっています。
• 北米では、グリッドスケール（電力網規模）のエネルギー貯蔵が力強い成長を示しています。ここでは、制御された環境下で熱バッテリーの性能が最適化され、間欠的な風力・太陽光発電システムの統合に伴う課題が緩和されています。
• ラテンアメリカでは、集光型太陽熱発電の開発において導入が進んでいます。アタカマ砂漠のような地域における良好な日射条件と、鉱業や国家送電網向けに信頼性の高い、供給調整可能な再生可能エネルギーを求める需要の増大が、この動きを後押ししています。

蓄熱媒体別

2026年には、蓄熱媒体の分野において溶融塩が最大のシェアを占めると予測されています。溶融塩は高温域での運用が可能であり、特に集光型太陽熱発電や火力発電の用途でその技術が確立されています。大規模システムへの適用が可能であることや、熱交換器や蒸気サイクルとの適合性が、継続的な需要を支えています。建物や地域エネルギーシステムにおける低温・中温域の蓄熱用途では依然として水が重要な役割を担っていますが、一方で、固体媒体や相変化材料（PCM）も特定の用途で利用が拡大しています。

コンパクトかつ高密度な蓄熱や、安定した温度制御を求めるユーザーが増える中、相変化材料は急速な成長を遂げると見込まれています。特定の相転移温度で潜熱を吸収・放出する特性は、建築、コールドチェーン、電子機器、輸送、産業プロセスなど幅広い分野で活用可能です。今後の普及は、サイクル寿命、カプセル化技術、熱伝導率、耐火性、コスト、そして既存の伝熱機器への組み込みやすさといった要因に左右されるでしょう。

Report Description

According to the latest research assessment, the global thermal energy storage market was valued at USD 6.5 billion in 2025. The market is projected to reach USD 16.2 billion by 2036 from an estimated USD 7.1 billion in 2026, registering a CAGR of 8.6% during the forecast period from 2026 to 2036. Thermal energy storage (TES) refers to systems that capture thermal energy for later use in heating, cooling, power generation, or industrial processing. Storage may use sensible heat, latent heat, or thermochemical reactions, with the choice determined by temperature range, duration, cycling requirements, available space, and end-use application.

TES is gaining importance because energy demand and energy supply are increasingly mismatched in time. Solar electricity may be abundant during the day but unavailable after sunset, while heating and cooling loads often peak at different times than renewable generation. Thermal storage allows operators to shift energy use, reduce peak electricity demand, stabilize industrial heat supply, and improve the utilization of generation and district-energy assets. Systems range from chilled-water tanks and ice storage to molten-salt installations, phase-change materials, packed beds, concrete or ceramic media, and thermochemical systems capable of retaining energy over longer periods.

Key Market Highlights:

• In 2026, Europe accounts for the largest share of the global thermal energy storage market, driven by stringent decarbonization targets, ambitious renewable energy integration goals, and well-established district heating infrastructure across municipal and industrial sectors.
• Asia-Pacific is projected to register the highest CAGR during the forecast period, fueled by rapid adoption of concentrated solar power in China and India, government subsidies for renewable energy infrastructure, growing grid stability concerns, and expansion of industrial manufacturing facilities.
• Based on technology, sensible heat storage holds the largest share of the market in 2026, driven by proven efficacy in concentrated solar power plants, established production infrastructure for molten salts and water tanks, and extensive use in district energy systems.
• Based on technology, thermochemical storage is expected to witness the fastest growth during the forecast period, driven by its superior energy density, capacity for long-duration seasonal storage with minimal thermal losses, and increasing research investments in advanced reactive materials.
• Based on application, power generation dominates the overall thermal energy storage systems market in 2026, owing to the massive deployment of molten salt storage in concentrated solar power facilities and the growing need for dispatchable renewable electricity generation.
• Based on end user, the commercial and industrial sector commands the largest share of the overall thermal energy storage systems market in 2026, driven by adoption in large-scale manufacturing operations, integrated energy management requirements from major facility operators, and economic viability in energy-intensive processes.
• North America shows strong growth in grid-scale energy storage where controlled environments optimize thermal battery performance and mitigate the integration challenges faced by intermittent wind and solar generation systems.
• Latin America shows growing adoption in concentrated solar power development where favorable solar irradiance conditions in regions like the Atacama Desert intersect with increasing demand for reliable, dispatchable renewable energy for mining operations and national grids.

The market includes storage media, tanks, heat exchangers, insulation, pumps, valves, controls, power-conversion equipment, engineering services, installation, commissioning, and long-term operations and maintenance. Customers include utilities, commercial buildings, industrial plants, district heating and cooling operators, concentrated solar power facilities, food and beverage manufacturers, chemical producers, data centers, and residential users. For distributors and resellers, the market creates opportunities across materials, thermal components, sensors, control systems, replacement parts, and service contracts.

Structural Transformation of the Thermal Energy Storage Market

The thermal energy storage market is shifting from an equipment-centered proposition toward integrated energy management. Earlier deployments were commonly designed to reduce a building’s peak cooling load or to support a specific concentrated solar power plant. Current projects increasingly connect TES with renewable generation, industrial process heat, district energy, heat pumps, electric boilers, data centers, and demand-response programs. The storage asset is therefore evaluated not only on capacity but also on how effectively it interacts with the wider energy system.

A second change is the expansion of storage temperature ranges and operating profiles. Water and ice systems remain established for building cooling, while molten salts and solid media serve high-temperature power and industrial applications. Phase change materials are being engineered for narrow temperature bands and compact systems, and thermochemical concepts are being developed for longer-duration storage with lower standing losses. These differences broaden the addressable market but require careful matching of material properties to the customer’s duty cycle.

Digital controls are becoming an important part of the value proposition. Sensors and analytics can forecast building loads, electricity prices, weather conditions, solar output, process demand, and equipment availability. Control platforms then determine when to charge or discharge storage, when to use a heat pump or electric heater, and when to preserve capacity for a higher-value period. This supports more predictable savings and may enable performance-based contracts in which suppliers are paid according to delivered thermal or electricity-cost benefits.

The commercial ecosystem is also widening. Technology developers increasingly work with utilities, EPC contractors, industrial manufacturers, project developers, building-management companies, and energy-service companies. The preferred solution may be sold as a stand-alone asset, a packaged system, a thermal-service agreement, or part of a broader decarbonization project. Suppliers that can provide engineering documentation, safety controls, material traceability, commissioning, and maintenance are better positioned to overcome customer concerns about reliability and lifecycle cost.

Market Insights and Dynamics

Key Market Drivers

Growth of Renewable Generation and Load Shifting

The expansion of solar and wind generation creates periods of low-cost or surplus electricity that may not coincide with demand. Thermal storage can absorb this energy and deliver useful cooling, heat, or power later. In power generation, molten-salt storage can extend the operating window of solar thermal plants. In buildings, chilled-water or ice storage can move cooling production away from high-price periods. In industry, high-temperature storage can support process heat when renewable electricity is available. These uses increase the value of renewable generation while reducing dependence on peaking supply.

Peak Demand Management and Energy-Cost Control

Commercial and industrial customers often face demand charges, time-of-use tariffs, or supply constraints during peak hours. TES gives these customers a means of producing or storing thermal energy in advance and discharging it when electricity is expensive or grid capacity is limited. The business case is particularly clear for buildings with predictable cooling loads, district-energy networks, manufacturing plants, and facilities where a short interruption in heating or cooling can disrupt operations. Reduced peak demand can also help utilities defer selected infrastructure upgrades.

Industrial Decarbonization and Process Heat

Industrial heat accounts for a substantial share of energy use in many sectors, yet it is difficult to electrify directly because processes may require high and stable temperatures. Thermal storage can decouple heat generation from heat consumption, allowing electric heaters, renewable electricity, waste heat, or solar thermal systems to charge storage when energy is available. The stored heat can then be supplied to kilns, dryers, furnaces, steam systems, and other processes. This supports decarbonization while preserving production continuity.

Key Market Restraints

High Initial Costs and Project Complexity

TES projects require more than the storage medium. Tanks, containment, insulation, heat exchangers, pumps, piping, controls, safety systems, civil works, and integration with existing equipment can represent a significant upfront investment. Project economics are also sensitive to charging source, operating temperature, cycle frequency, available space, and local energy prices. Customers may postpone investment when savings are uncertain or when the project competes with simpler efficiency improvements.

Technology Maturity and Material Constraints

Water and ice storage are mature, but some high-temperature and thermochemical technologies are still developing commercial operating histories. Material compatibility, corrosion, thermal cycling, containment, degradation, and performance measurement can affect reliability. Molten salts and phase change materials must be carefully selected for melting point, thermal stability, heat-transfer behavior, and safety. The need for application-specific engineering increases sales cycles and can limit the number of qualified installers.

Market Opportunities and Trends

Thermochemical Storage and Multi-Day Duration

Thermochemical storage is expected to register the fastest growth among technology categories from a smaller base. It stores energy through reversible chemical reactions and can offer high energy density or lower standby losses in selected applications. As users seek storage beyond daily cycles, thermochemical systems may serve seasonal heating, industrial heat, and renewable-firming requirements. Commercial success will depend on reaction stability, cost, system simplicity, material availability, and demonstrated field performance.

Molten Salt and Phase Change Materials

Molten salts are expected to hold the largest share of the storage-material segment in 2026 because they are established in concentrated solar power and high-temperature storage applications. They offer useful operating temperatures and can be integrated with steam cycles. Phase change materials are gaining attention because they can store substantial heat within a narrow temperature range and support compact systems. They may be used in buildings, refrigeration, transport, electronics cooling, and industrial processes where space and temperature control are important.

District Energy and Integrated Thermal Networks

District energy systems are expected to record the fastest end-user growth. Thermal storage allows district heating and cooling networks to balance changing demand, integrate waste heat, use heat pumps during favorable electricity periods, and reduce the need for oversized generation equipment. District networks can also combine multiple energy sources, including solar thermal, geothermal, industrial waste heat, electricity, and combined heat and power. The opportunity is strongest where urban density and centralized energy infrastructure support shared storage assets.

Segmentation Analysis

The global thermal energy storage market is segmented by technology type, storage material, application, end user, and geography. The following analysis identifies the leading segment and the fastest-growing opportunity within each principal dimension.

By Technology Type

Sensible heat storage is expected to hold the largest share of the market in 2026. These systems store energy by raising the temperature of a medium such as water, molten salt, concrete, rocks, or other solid materials. Their comparatively simple operating principle, broad material choices, and established use in hot-water tanks, chilled-water systems, and concentrated solar power support adoption across commercial, utility, and industrial applications. Sensible systems can also be scaled using familiar tanks, heat exchangers, and circulation equipment.

Thermochemical storage is projected to register the fastest growth during the forecast period. Its potential for high energy density and reduced standby losses is attractive for multi-day storage, industrial heat, and applications where space is constrained. However, project deployment will depend on the commercialization of stable reactions, reliable reactor designs, cost-effective materials, and operating data that satisfy financiers and industrial customers. Latent heat storage will continue to grow where phase change materials provide precise temperature control and compact design.

By Storage Material

Molten salts are expected to account for the largest share of the storage-material segment in 2026. They can operate at elevated temperatures and are particularly established in concentrated solar power and thermal power applications. Their availability in large-scale configurations and compatibility with heat exchangers and steam cycles support continued demand. Water remains important for low- and medium-temperature building and district-energy storage, while solid media and phase change materials are expanding in specialized applications.

Phase change materials are expected to show rapid growth as users seek compact, high-density storage and stable temperature regulation. Their ability to absorb and release latent heat at a designed transition temperature can be useful in buildings, cold chains, electronics, transport, and industrial processes. Adoption will depend on cycle life, encapsulation, thermal conductivity, fire safety, cost, and the ability to integrate the material with existing heat-transfer equipment.

By Application

Power generation is expected to hold the largest share of the application segment in 2026. Thermal storage can extend the dispatchability of solar thermal facilities, support renewable integration, and provide flexible generation during periods of high demand. It can also help power plants and hybrid facilities manage ramping and improve the utilization of thermal assets. The value of storage is highest where electricity markets reward dispatchability and where renewable generation would otherwise be curtailed.

District energy and process heating are expected to be among the fastest-growing applications. District energy operators can use storage to balance network loads and integrate several heat sources, while industrial users can use high-temperature systems to reduce fossil-fuel consumption and stabilize production. Building cooling remains a large established application, especially in commercial facilities with predictable peak loads and demand charges.

By End User

Commercial and industrial users are expected to hold the largest share in 2026. Commercial buildings deploy chilled-water and ice storage to manage cooling peaks, while industrial plants use TES for process heat, steam, waste-heat recovery, and energy-cost control. These customers often have clear operating schedules, measurable energy bills, and a direct incentive to improve resilience and reduce peak consumption.

District energy systems are projected to register the fastest CAGR during 2026–2036. Urban heating and cooling networks can aggregate demand and create a stronger business case for large storage assets than individual buildings. District systems are also well suited to integrating heat pumps, renewables, waste heat, and thermal generation. Utilities, residential users, and public facilities will contribute to growth as local energy planning places greater emphasis on flexibility and resilience.

Geographic Analysis

Regional market development is influenced by renewable penetration, electricity prices, heating and cooling demand, industrial structure, district-energy infrastructure, environmental policy, and the availability of project finance. Europe is expected to hold the largest share in 2026, while Asia-Pacific is projected to be the fastest-growing region during the forecast period.

Europe

Europe is a mature market for thermal storage because district heating and cooling, concentrated solar power, industrial energy efficiency, and renewable integration are established policy and investment priorities. Energy-price volatility and energy-security concerns are supporting interest in thermal flexibility, heat pumps, waste heat, and storage. Germany, Spain, Italy, France, the United Kingdom, and Nordic countries offer opportunities across district networks, commercial buildings, and industrial facilities. European customers generally place strong emphasis on lifecycle efficiency, safety, engineering standards, and integration with decarbonization plans. The key companies operating in the European thermal energy storage market are Siemens Energy AG, Abengoa S.A., Aalborg CSP A/S, EnergyNest, Sunamp, Eco-Tech Ceram, Kyoto Group, and Yara International.

North America

North America supports demand through commercial cooling, industrial process heat, utility flexibility, concentrated solar power, and energy-service projects. The United States has a broad installed base of commercial buildings that can benefit from chilled-water and ice storage, as well as industrial facilities seeking to control demand charges and electrify heat. Canada offers opportunities in district energy, cold climates, mining, food processing, and industrial resilience. Market development is influenced by utility tariffs, incentive programs, building standards, and access to financing. The key companies operating in the North American market are BrightSource Energy Inc., CALMAC Corp. (Trane), Rondo Energy, Antora Energy, Steffes LLC, and Amsted Industries.

Asia-Pacific

Asia-Pacific is projected to record the fastest growth as electricity consumption, cooling demand, manufacturing, and renewable generation expand. China, Japan, India, South Korea, Australia, and Southeast Asian economies are evaluating TES for power generation, industrial heat, district energy, and commercial cooling. Rapid urbanization supports district-energy opportunities, while industrial parks and manufacturing facilities can use storage to manage peak demand and integrate renewable electricity. Local manufacturing, cost competitiveness, heat intensity, and project standardization will be important factors in adoption. The key companies operating in the Asia-Pacific thermal energy storage market are Yara International, Sumitomo Electric, Kyoto Group, Moon Environment Technology Co. Ltd., and regional thermal-system manufacturers.

Latin America, Middle East & Africa

Latin America offers opportunities in concentrated solar power, mining, food processing, district cooling, and industrial heat. High solar resources can support solar thermal and hybrid storage projects, while industrial facilities may value thermal storage where grid service is unreliable or fuel costs are high. The Middle East is a strong market for district cooling, solar thermal, desalination-related heat, and large infrastructure projects, although high ambient temperatures and water availability influence technology choice. Africa presents opportunities in industrial sites, mini-grids, cold chains, and resilient heating and cooling, with financing and technical-service availability remaining important considerations.

Key Players

The key companies covered in the global thermal energy storage market include Siemens Energy AG, Abengoa S.A., Aalborg CSP A/S, BrightSource Energy Inc., CALMAC Corp. (Trane), EnergyNest, Rondo Energy, SunAmp, Eco-Tech Ceram, Antora Energy, Kyoto Group, Yara International, Steffes LLC, Amsted Industries, and Moon Environment Technology Co. Ltd.

Competition is shaped by storage temperature, duration, efficiency, material stability, cycle life, safety, footprint, heat-transfer design, project integration, and long-term service capability. Established suppliers compete through bankable equipment, engineering expertise, and relationships with utilities and large industrial customers. Emerging companies differentiate through high-temperature storage, phase change materials, thermochemical approaches, modular systems, or software-enabled controls. Distributors can create value by supplying heat exchangers, pumps, valves, insulation, sensors, control systems, safety equipment, replacement media, and maintenance services across several TES technologies.

Key Questions Answered in the Report

What is the projected size of the global thermal energy storage market by 2036?

The market is projected to reach USD 16.2 billion by 2036, rising from USD 7.1 billion in 2026.

What is the expected CAGR during 2026–2036?

The market is expected to grow at a CAGR of 8.6% during the forecast period.

Which technology type holds the largest share in 2026?

Sensible heat storage holds the largest share because of its established use, scalable equipment, and broad material base.

Which technology type is expected to grow fastest?

Thermochemical storage is expected to register the fastest growth due to its potential for high energy density and multi-day storage.

Which storage material holds the largest share?

Molten salts hold the largest share in 2026, supported by concentrated solar power and high-temperature applications.

Which application dominates the market?

Power generation is expected to be the largest application in 2026.

Which end-user segment is expected to grow fastest?

District energy systems are projected to register the fastest CAGR as urban networks integrate renewables, heat pumps, and waste heat.

Which region holds the largest share?

Europe is expected to hold the largest regional share in 2026.

Which region is expected to grow fastest?

Asia-Pacific is projected to be the fastest-growing region through 2036.

What are the principal restraints?

High initial costs, project complexity, material constraints, technology maturity, and the need for application-specific engineering can delay deployment.

Scope of the Report

Global Thermal Energy Storage Market Assessment — by Technology Type

• Sensible Heat Storage
• Latent Heat Storage
• Thermochemical Storage
• Others

Global Thermal Energy Storage Market Assessment — by Storage Material

• Molten Salts
• Water
• Phase Change Materials
• Solid Media
• Others

Global Thermal Energy Storage Market Assessment — by Application

• Power Generation
• District Energy
• Process Heating
• Building Cooling and Heating
• Others

Global Thermal Energy Storage Market Assessment — by End User

• Commercial & Industrial
• Utilities
• Residential
• District Energy Systems
• Others

Global Thermal Energy Storage Market Assessment — by Geography

• North America (U.S., Canada)
• Europe (Germany, France, U.K., Italy, Spain, Nordic Countries, Rest of Europe)
• Asia-Pacific (China, Japan, India, South Korea, Australia, Southeast Asia, Rest of Asia-Pacific)
• Latin America (Brazil, Mexico, Chile, Rest of Latin America)
• Middle East & Africa (UAE, Saudi Arabia, South Africa, Rest of MEA)

Table of Contents

1. Introduction
1.1. Market Definition
1.2. Market Ecosystem
1.3. Currency and Limitations
1.3.1. Currency
1.3.2. Limitations
1.4. Key Stakeholders
2. Research Methodology
2.1. Research Approach
2.2. Data Collection & Validation
2.2.1. Secondary Research
2.2.2. Primary Research
2.3. Market Assessment
2.3.1. Market Size Estimation
2.3.2. Bottom-Up Approach
2.3.3. Top-Down Approach
2.3.4. Growth Forecast
2.4. Assumptions for the Study
3. Executive Summary
3.1. Overview
3.2. Market Analysis, by Technology Type
3.3. Market Analysis, by Storage Material
3.4. Market Analysis, by Application
3.5. Market Analysis, by End User
3.6. Market Analysis, by Geography
3.7. Competitive Analysis
4. Market Insights
4.1. Introduction
4.2. Global Thermal Energy Storage Systems Market: Impact Analysis of Market Drivers (2025–2036)
4.2.1. Urgent Need for Renewable Energy Integration and Grid Stability
4.2.2. Stringent Energy Efficiency Regulations and Decarbonization Mandates
4.3. Global Thermal Energy Storage Systems Market: Impact Analysis of Market Restraints (2025–2036)
4.3.1. High Initial Capital Costs and Long Payback Periods
4.3.2. Technical Complexities and Material Degradation Challenges
4.4. Global Thermal Energy Storage Systems Market: Impact Analysis of Market Opportunities (2025–2036)
4.4.1. Expansion of District Heating and Cooling Networks
4.4.2. Industrial Process Heat Decarbonization
4.5. Global Thermal Energy Storage Systems Market: Impact Analysis of Market Challenges (2025–2036)
4.5.1. Competition from Rapidly Declining Battery Energy Storage Costs
4.5.2. Lack of Standardized Regulatory Frameworks and Incentives
4.6. Global Thermal Energy Storage Systems Market: Impact Analysis of Market Trends (2025–2036)
4.6.1. Integration with Digital Energy Management and Smart Grid Platforms
4.6.2. Development of Advanced Phase Change Materials and High-Temperature Storage Media
4.6.3. Regionalization of Manufacturing and Supply Chain Infrastructure
4.7. Porter’s Five Forces Analysis
4.7.1. Threat of New Entrants
4.7.2. Bargaining Power of Suppliers
4.7.3. Bargaining Power of Buyers
4.7.4. Threat of Substitute Products
4.7.5. Competitive Rivalry
5. Industry Ecosystem / Value Chain
5.1. Introduction to Thermal Energy Storage Value Chain
5.2. Material Suppliers and Component Manufacturers
5.3. System Integrators and EPC Contractors
5.4. Project Developers and Utilities
5.5. End Users and Facility Operators
6. Competitive Landscape
6.1. Introduction
6.2. Key Growth Strategies
6.2.1. Market Differentiators
6.2.2. Synergy Analysis: Major Deals & Strategic Alliances
6.3. Competitive Dashboard
6.3.1. Industry Leaders
6.3.2. Market Differentiators
6.3.3. Vanguards
6.3.4. Emerging Companies
6.4. Vendor Market Positioning
6.5. Market Share/Ranking by Key Players
7. Global Thermal Energy Storage Systems Market, by Technology Type
7.1. Introduction
7.2. Sensible Heat Storage
7.3. Latent Heat Storage
7.4. Thermochemical Storage
8. Global Thermal Energy Storage Systems Market, by Storage Material
8.1. Introduction
8.2. Molten Salts
8.3. Water
8.4. Phase Change Materials (PCM)
8.5. Concrete and Solid Media
8.6. Others
9. Global Thermal Energy Storage Systems Market, by Application
9.1. Introduction
9.2. Power Generation
9.3. District Heating & Cooling
9.4. Process Heat
9.5. Commercial HVAC
9.6. Others
10. Global Thermal Energy Storage Systems Market, by End User
10.1. Introduction
10.2. Commercial and Industrial
10.3. Utilities and Grid Operators
10.4. District Energy Systems
10.5. Residential
11. Global Thermal Energy Storage Systems Market, by Geography
11.1. Introduction
11.2. North America
11.2.1. U.S.
11.2.2. Canada
11.3. Europe
11.3.1. Germany
11.3.2. Spain
11.3.3. U.K.
11.3.4. France
11.3.5. Italy
11.3.6. Denmark
11.3.7. Rest of Europe
11.4. Asia-Pacific
11.4.1. China
11.4.2. India
11.4.3. Japan
11.4.4. Australia
11.4.5. South Korea
11.4.6. Rest of Asia-Pacific
11.5. Latin America
11.5.1. Brazil
11.5.2. Mexico
11.5.3. Chile
11.5.4. Rest of Latin America
11.6. Middle East & Africa
11.6.1. UAE
11.6.2. Saudi Arabia
11.6.3. South Africa
11.6.4. Rest of Middle East & Africa
12. Company Profiles
(Business Overview, Financial Overview, Product Portfolio, Strategic Developments, SWOT Analysis)
12.1. Siemens Energy AG
12.2. Abengoa S.A.
12.3. Aalborg CSP A/S
12.4. BrightSource Energy Inc.
12.5. CALMAC Corp. (Trane)
12.6. EnergyNest
12.7. Rondo Energy
12.8. SunAmp
12.9. Eco-Tech Ceram
12.10. Antora Energy
12.11. Kyoto Group
12.12. Yara International
12.13. Steffes LLC
12.14. Amsted Industries
12.15. Moon Environment Technology Co. Ltd.
12.16. Others
13. Appendix
13.1. Questionnaire
13.2. Available Customization

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