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電池能源儲存

市場調查報告書

商品編碼

2148273

長效儲能市場規模、佔有率及成長預測（2026-2032 年）

Long Duration Energy Storage Market Size, Share & Growth Forecast (2026-2032)

出版日期: 2026年09月28日 | 出版商:

Knowledge Sourcing Intelligence | 英文 152 Pages | 商品交期: 最快1-2個工作天內

價格

簡介目錄

2026年，長壽命儲能市場規模估計為56億美元，預計2032年將達到148.5億美元。這意味著從2026年到2032年，複合年成長率將達到17.6%。

長時儲能市場在全球能源轉型中佔有至關重要的地位。市場介於日常電池循環和季節性燃料儲存之間。當電網中可再生能源持續過剩、輸電受限或可再生能源發電量下降時，其經濟價值將顯著提升。與傳統的4小時鋰離子電池系統不同，許多長時儲能技術將輸出容量與儲存容量分開。這使得在不按比例增加系統各組件容量的情況下，可以延長放電時間。因此，隨著所需時長的增加，液流電池、壓縮空氣儲能系統、熱能儲能和氫能儲能系統變得更具競爭力。每種技術在效率、安裝位置和結構方面都存在不同的限制。該市場正從試點階段邁向商業規模部署。可再生能源發電量減少、發電容量替換需求以及資料中心和工業領域新增負載的成長是主要的宏觀經濟促進因素。北美地區的需求成長主要得益於企劃案融資、公用事業採購和國內製造業投資。目前，供應商集中度仍然很高，與整個電池生態系統相比，可靠的商業開發商和後期開發商的數量相對較少。

市場促進因素

由於可再生能源發電受限以及淨負載上升時間延長，儲能的價值日益凸顯。隨著風能和太陽能發電的擴張，局部地區無法吸收過剩電力的時段也越來越長。隨著棄電成本的上升，能夠在可再生能源供應不足的夜間或數日內轉移能源的儲能系統的價值也隨之增加。長期儲能還可以減少建設僅用於應對偶發性負載高峰的峰值容量的需求。這種商業性徵兆體現在電力公司採購8小時甚至數日以上的資源、簽訂長期服務合約以及容量合約中，這些合約不僅獎勵短期電力供應，也獎勵持續穩定的電力供應。
商業規模的成熟專案能夠降低技術風險。市場受益於大規模的運作記錄和在建項目。根據 Energy Vault 通報，如東一座 25 兆瓦/100 兆瓦時的重力供氣系統已投入運作。 Highview Power 正在英國建造一座 50 兆瓦/300 兆瓦時的液氣儲能電站。 Energy Dome 正在推進一項 8-24 小時二氧化碳電池儲能專案的合約。 Hydrostar 已為其 500 兆瓦/4000 兆瓦時的先進壓縮空氣儲能計畫 Willow Rock 簽署了購電協議。這些項目為貸款方、電力公司和工程公司提供了更可靠的依據，用於制定施工進度計劃、性能保證、維護要求和營運經濟效益。
資料中心和工業領域的需求正在為市場創造新的切入點。長期儲能不再侷限於電力公司的可再生能源轉換應用。 Form Energy已宣布與資料中心開發相關的千兆瓦時容量合約。熱電池公司正將目光投向工業供熱和電力領域。 Antra Energy將於2026年在POET展會上運作一套5吉瓦時的熱電池系統。這表明，大規模儲能項目可以圍繞基於合約的工業電力採購進行建設，而不是依賴批發電力市場的收入結構。這拓展了市場範圍，使其不再局限於電力公司，而是創造出資金籌措可行性的項目，滿足客戶對穩定電力、蒸氣、系統韌性或更快併網速度的需求。

市場限制因素

長期儲能項目仍是資本密集型項目。這些項目經常面臨與引入世界首創技術、漫長的審核流程以及僅在電網負載不頻繁時使用的容量所帶來的收入確認不確定性相關的工程風險。基於洞穴、大規模土木結構或低溫系統的儲能技術往往依賴位置和施工條件。另一方面，電化學儲能方案的位置相對容易，但需要證明其製造規模、運作壽命和性能保證。
此外，市場缺乏全球統一的持續時間定義。一些採購項目將持續時間為 4 至 8 小時的系統歸類為「長持續時間」系統，而開發商在開發持續數天的系統時，則更關注 24 小時或更長的持續時間。因此，本報告採用 8 小時作為收入估算的閾值。只有當持續時間較短的系統構成專門的長持續時間專案架構的一部分時，才會將其納入考慮範圍。收入結構和市場設計的不確定性進一步加劇了投資決策的複雜性。對於許多專案類型而言，授權的取得和建設前置作業時間仍然很長。特定技術的位置限制也限制了某些系統的部署範圍。

促進因素
- 可再生能源輸出削減和電網堵塞
- 設備升級和可靠性
- 資料中心和工業部門的負載增加
- 商業規模專案的檢驗
抑制因子
- 「1號單元」專案的風險
- 授權和施工前置作業時間
- 收入結構和市場設計的不確定性
- 技術相關的位置限制

第10章競爭格局

電化學LDES供應商
熱機械儲熱系統開發公司
熱能存儲和多日存儲的開發商
商業項目儲備

第11章：公司簡介

Form Energy
Hydrostor
Highview Power
Energy Dome
Energy Vault
Eos Energy Enterprises
Invinity Energy Systems
CMBlu Energy
Sumitomo Electric
ESS Tech
Malta Inc.
Antora Energy
Fourth Power
RheEnergise

第12章近期趨勢

第13章附錄

簡介目錄

The Long Duration Energy Storage Market is estimated at USD 5.60 billion in 2026 and is projected to reach USD 14.85 billion by 2032, representing a CAGR of 17.6% during 2026-2032.

The long duration energy storage market occupies a critical position in the global energy transition. It sits between daily battery cycling and seasonal fuel storage. Its economic value rises when grids experience longer periods of renewable oversupply, transmission constraints or low renewable output. Unlike conventional four-hour lithium-ion systems, many long duration technologies separate power capacity from stored-energy capacity. This allows discharge duration to be extended without increasing every system component proportionally. Flow batteries, compressed-air systems, thermal stores and hydrogen-based systems therefore become more competitive as required duration increases. Each technology carries different efficiency, siting and construction constraints. The market is shifting from pilot-stage experimentation toward commercial-scale deployment. Renewable curtailment, capacity replacement needs and new load growth from data centres and industry are the primary macro drivers. North America leads regional demand, supported by project finance, utility procurement and domestic manufacturing investment. The supplier base remains concentrated, with fewer credible commercial and late-stage developers than the wider battery ecosystem.

Market Drivers

Renewable curtailment and longer net-load ramps increase the value of stored energy. Wind and solar additions are increasing the number of hours in which generation is abundant but cannot be absorbed locally. As curtailment costs rise, storage that can shift energy across an overnight period or across several low-renewable days becomes more valuable. Long duration energy storage can also reduce the need to build peaking capacity solely for infrequent stress events. The commercial signal is visible in utility procurements for eight-hour and multi-day resources, in long-term service agreements and in capacity contracts that reward sustained delivery rather than only short bursts of power.
Commercial-scale reference projects reduce technology risk. The market is benefiting from larger operating references and projects under construction. Energy Vault reports a commissioned 25 MW/100 MWh gravity system in Rudong. Highview Power is building a 50 MW/300 MWh liquid-air plant in the United Kingdom. Energy Dome is contracting 8- to 24-hour carbon-dioxide battery projects. Hydrostor has secured offtake for the 500 MW/4,000 MWh Willow Rock advanced compressed-air project. These projects provide lenders, utilities and engineering firms with better evidence on construction schedules, performance guarantees, maintenance requirements and operating economics.
Data-centre and industrial demand creates additional routes to market. Long duration energy storage is no longer limited to utility renewable-shifting applications. Form Energy has announced multi-gigawatt-hour capacity agreements associated with data-centre development. Thermal-battery companies are targeting industrial heat and power. Antora Energy commissioned a 5 GWh thermal battery system at POET in 2026. This demonstrates that large storage projects can be built around a contracted industrial energy offtake rather than a wholesale power-market revenue stack. This broadens the market beyond utilities and creates bankable projects where the customer values firm power, steam, resilience or faster grid interconnection.

Market Restraints

Long-duration projects remain capital-intensive. They frequently face first-of-a-kind engineering risk, long permitting cycles and uncertain revenue recognition for capacity that may be used only during infrequent system stress. Technologies based on caverns, large civil structures or cryogenic systems can be site- and construction-dependent. Electrochemical alternatives have simpler siting but must prove manufacturing scale, field life and warranty performance.
The market also lacks a single globally accepted duration threshold. Some procurement programmes classify four-to-eight-hour systems as long duration. Multi-day developers focus on 24 hours or more. This report therefore uses an eight-hour threshold for the revenue estimate. It treats shorter systems only where they form part of a dedicated long-duration project architecture. Revenue-stack and market-design uncertainty further complicate investment cases. Permitting and construction lead times remain lengthy for many project types. Technology-specific siting constraints limit where certain systems can be deployed.

Technology and Segment Insights

Electrochemical systems are the largest technology group in 2026. They are supported by commercially available vanadium-flow and zinc-based systems and the rapid scale-up of iron-air and other aqueous chemistries. Their modularity and relatively straightforward site development make them attractive where geological conditions are unsuitable for cavern-based systems. The technology group accounts for an estimated 39.2% of 2026 market revenue. Thermal and thermo-mechanical storage is expected to record the strongest growth through 2032. Liquid-air, carbon-dioxide, pumped-heat and high-temperature thermal systems are progressing into larger contracted projects.
Flow, zinc and iron-air batteries typically provide 8 to 100+ hours of duration. They are at commercial to early-scale deployment. Their primary fit is utility shifting, capacity and microgrids. Advanced compressed air provides 8+ hours and is at large late-stage projects with operating references. It fits grid capacity and renewable integration. Liquid air and carbon-dioxide storage provides 6 to 24+ hours. Commercial-scale deployment is accelerating. It fits grid shifting and capacity replacement. Gravity and advanced hydro provides 4 to 20+ hours. There is a commercial gravity reference and advanced hydro pilots. It fits bulk shifting where site conditions allow. Thermal and pumped heat provides 10 hours to multi-day. Industrial commercial deployment is underway and grid projects are developing. It fits industrial heat, firm power and data centres. Hydrogen power storage provides multi-day to seasonal duration. Commercial components exist and integrated projects are emerging. It fits seasonal balancing and resilience.
Eight-to-24-hour systems form the largest revenue pool. They can address daily renewable shifting and capacity needs while keeping equipment utilisation high. Multi-day systems are the fastest-developing duration class. Utilities are planning for prolonged low-wind or low-solar periods. Large loads seek resilience beyond conventional backup windows. Grid-scale renewable integration remains the largest application. Industrial energy and data-centre applications are expanding faster from a smaller base.

Competitive and Strategic Outlook

The competitive landscape is defined by a relatively small group of companies with current products, operating references, contracted projects or late-stage commercial programmes. The market should not be treated as a conventional battery-vendor list. Many adjacent cell manufacturers, engineering contractors, utilities and materials suppliers do not provide a long-duration storage product. The key participants have current technologies or projects directly addressing long-duration storage and current evidence of activity.
Form Energy provides iron-air 100-hour batteries. It is at commercial-scale deployment and manufacturing ramp. Hydrostor provides advanced compressed-air energy storage. It is a commercial developer and operator. Highview Power provides liquid-air energy storage. It is a commercial-scale project developer. Energy Dome provides carbon-dioxide batteries. It is a commercial supplier and developer. Energy Vault provides gravity and integrated long duration energy storage. It is a commercial supplier, developer and owner. Eos Energy Enterprises provides zinc-based long duration energy storage. It is a commercial supplier. Invinity Energy Systems provides vanadium flow batteries. It is a commercial supplier. CMBlu Energy provides Organic SolidFlow batteries. It is a commercialising supplier. Sumitomo Electric provides vanadium redox flow batteries. It is a commercial supplier. ESS Tech provides iron-flow long duration energy storage. It is a commercial supplier in portfolio transition. Malta Inc. provides pumped-heat and molten-salt long duration energy storage. It is a pilot and early commercial developer. Antora Energy provides high-temperature thermal batteries. It is a commercial supplier and project developer. Fourth Power provides high-temperature thermal-to-power storage. It is a demonstration-stage developer. RheEnergise provides High-Density Hydro. It is a pilot-stage developer.
North America is the largest regional market in 2026, with an estimated 36.8% share. The United States combines utility procurement, federal and state demonstration support, large renewable curtailment zones and a rapidly expanding data-centre load. The region also contains several of the most advanced technology developers. California is important for long-duration procurement and compressed-air development. The Midwest and Northeast are becoming important for iron-air, flow-battery and industrial thermal projects. Canada contributes through Hydrostor and utility storage programmes. The U.S. manufacturing push is supporting domestic supply chains for non-lithium batteries and thermal systems.
Recent developments confirm accelerating commercial activity. In September 2026, Energy Vault advanced its 125 MW / 1 GWh Stoney Creek eight-hour project in New South Wales through full project-land acquisition and construction-readiness milestones. In August 2026, Hydrostor secured USD 230 million to progress its advanced compressed-air energy storage portfolio, including large projects in California and Australia. In July 2026, Antora Energy announced a USD 550 million Series C after commissioning its 5 GWh multi-day thermal-battery project in South Dakota. In June 2026, Eos Energy Enterprises signed a 750 MWh long-duration storage supply commitment for Germany, Austria and Switzerland with a pathway to 2 GWh. In May 2026, Invinity Energy Systems was selected to engineer a GWh-scale vanadium-flow battery for the Technology Centre Laufenburg in Switzerland. In January 2026, CMBlu Energy and Uniper signed a conditional framework covering at least 5 GWh of Organic SolidFlow systems through 2037.

Conclusion

The long duration energy storage market is moving from demonstration to commercial scale. Growth is driven by renewable curtailment, capacity replacement needs and new industrial and data-centre load growth. Technology choice is becoming application-led. No single technology will satisfy every grid-service requirement. Hybrid architectures combining short-duration batteries with longer-duration systems are likely to widen the addressable market. North America remains the largest regional market, but Europe and Asia Pacific are developing project pipelines. The supplier base is concentrated among a small group of credible commercial and late-stage developers. Capital intensity, first-of-a-kind risk and revenue-stack uncertainty remain restraints. However, commercial-scale reference projects are reducing technology risk and improving bankability. The market is projected to grow from USD 5.60 billion in 2026 to USD 14.85 billion by 2032 at a CAGR of 17.6%.

Key Benefits of this Report

Insightful Analysis: Detailed market insights across regions, customer segments, policies, socio-economic factors, consumer preferences, and industry verticals.
Competitive Landscape: Understand strategic moves by key players to identify optimal market entry approaches.
Market Drivers and Future Trends: Assess major growth forces and emerging developments shaping the market.
Actionable Recommendations: Support strategic decisions to unlock new revenue streams.
Caters to a Wide Audience: Suitable for startups, research institutions, consultants, SMEs, and large enterprises.

What Businesses Use Our Reports For

Industry and market insights, opportunity assessment, product demand forecasting, market entry strategy, geographical expansion, capital investment decisions, regulatory analysis, new product development, and competitive intelligence.

Report Coverage

Historical data from 2021 to 2024, Base year 2025, and Forecast years from 2026 to 2032
Growth opportunities, challenges, supply chain outlook, regulatory framework, and trend analysis
Competitive positioning, strategies, and market share evaluation, and trade analysis
Revenue growth and forecast assessment across segments and regions
Company profiling including strategies, products, financials, and key developments

1. Executive Summary

1.1. Market Opportunity and Key Findings
1.2. LDES Technology and Duration Outlook
1.3. Commercialisation and Project Pipeline

2. Market Overview

2.1. Long-Duration Energy Storage Fundamentals
2.2. Storage Duration and Grid-Service Requirements
2.3. Long-Duration versus Short-Duration Storage
2.4. Hybrid Storage Architectures

3. Market Size and Forecast, 2026-2032

3.1. Global Market Revenue
3.2. Annual Growth Analysis

4. Market by Technology

4.1. Flow Batteries
4.2. Zinc-Based and Iron-Air Batteries
4.3. Advanced Compressed-Air Energy Storage
4.4. Liquid-Air Energy Storage
4.5. Carbon-Dioxide Energy Storage
4.6. Gravity and Advanced Hydro Storage
4.7. Thermal and Pumped-Heat Storage
4.8. Hydrogen-Based Energy Storage

5. Market by Duration

5.1. 8-12 Hours
5.2. 12-24 Hours
5.3. 24-100 Hours
5.4. Above 100 Hours / Seasonal

6. Market by Application

6.1. Renewable Energy Shifting
6.2. Capacity and Resource Adequacy
6.3. Grid Congestion and Curtailment Management
6.4. Industrial Energy
6.5. Data Centres and Critical Infrastructure
6.6. Microgrids and Remote Power

7. Market by Deployment Type

7.1. Utility-Owned
7.2. Independent Power Producer / Storage-as-a-Service
7.3. Behind-the-Meter and Industrial

8. Regional Market

8.1. North America
- 8.1.1. United States
- 8.1.2. Canada
8.2. Europe
8.3. Asia Pacific
8.4. Rest of World

9. Market Dynamics

9.1. Drivers
- 9.1.1. Renewable Curtailment and Grid Congestion
- 9.1.2. Capacity Replacement and Reliability
- 9.1.3. Data-Centre and Industrial Load Growth
- 9.1.4. Commercial-Scale Project Validation
9.2. Restraints
- 9.2.1. First-of-a-Kind Project Risk
- 9.2.2. Permitting and Construction Lead Times
- 9.2.3. Revenue-Stack and Market-Design Uncertainty
- 9.2.4. Technology-Specific Siting Constraints