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市場調查報告書
商品編碼
2046584
呼吸器電池市場-全球產業規模、佔有率、趨勢、機會、預測:電池類型、終端用戶產業、地區及競爭格局(2021-2031年)Breathing Battery Market - Global Industry Size, Share, Trends, Opportunity, and Forecast Segmented By Battery Type, by End-use Industry, By Region & Competition, 2021-2031F |
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全球呼吸電池市場預計將從 2025 年的 240.2 億美元大幅成長至 2031 年的 465.3 億美元,複合年成長率達 11.65%。
該市場涵蓋金屬空氣電化學電池的創新和商業化,利用環境氧氣作為連續的陰極反應物,氧化鋅、鐵和鋁等金屬陽極。推動這一市場成長的關鍵因素是這些系統的高理論能量密度。這使得系統無需笨重的氧化劑容器,從而減輕了整體重量,並且由於原料易於獲取且成本低廉,提高了經濟可行性。此外,工業界對長期儲能的需求,以緩解再生能源來源造成的電網不穩定性,也是該市場成長的根本驅動力,這與家用電子電器的短期需求截然不同。阻礙市場滲透的主要障礙是確保空氣電極循環壽命和可充電性的固有技術挑戰,這些挑戰常常導致二氧化碳和腐蝕造成的性能下降。為了了解包括金屬空氣系統在內的更廣泛的長期儲能領域的當前規模,長期儲能委員會報告稱,2024 年全球部署計畫容量為 0.22兆瓦。這項統計數據凸顯了現有產能與實現未來淨零排放目標所需部署量之間存在的巨大差距。
| 市場概覽 | |
|---|---|
| 預測期 | 2027-2031 |
| 市場規模:2025年 | 240.2億美元 |
| 市場規模:2031年 | 465.3億美元 |
| 複合年成長率:2026-2031年 | 11.65% |
| 成長最快的細分市場 | 車 |
| 最大的市場 | 亞太地區 |
推動金屬空氣電池技術普及的主要動力是對高效能、電網級可再生能源儲存日益成長的需求。與傳統的鋰離子電池系統不同,後者在放電四小時後便會失去經濟效益,而金屬空氣電池利用鐵、鋅等儲量豐富的金屬,能夠以經濟高效的方式儲存數天的能量。這種能力對於有效管理太陽能和風能的波動性至關重要,而這些產業需求正推動大量投資湧向商業化領域。例如,Form Energy公司於2024年10月宣布成功完成F輪資金籌措,籌集4.05億美元,用於加速生產儲能時間達100小時的鐵空氣電池系統。同時,長續航里程電動車市場的快速擴張也迫使整個產業尋求突破現有電池化學性能限制的解決方案。由於金屬空氣電池利用大氣中的氧氣來提供更高的比能量,製造商正積極致力於開發高能量密度的替代技術,以緩解人們對續航里程的擔憂。預計汽車電氣化的規模將進一步加速這一趨勢。根據國際能源總署(IEA)於2024年4月發布的《2024年全球電動車展望》,預計到2024年底,電動車銷量將達到約1,700萬輛,這將推動對下一代儲能技術的需求成長。確保負極材料的供應對於實現這一規模至關重要。美國地質調查局(USGS)估計,到2024年,全球鋅蘊藏量將達到2.2億噸,這將確保鋅空氣電池組件的穩定供應鏈。
阻礙全球呼吸電池市場擴張的一大挑戰是空氣電極循環壽命和電充電性能的技術複雜性。這些電池系統經常會因碳酸化(大氣中的二氧化碳與電解反應產生)和負極腐蝕(在反覆充電循環過程中)而導致性能下降。這種物理性能劣化會顯著縮短電池的運作,並降低其在大規模、資本密集型電網應用中的可靠性,而這些應用需要電池在數年內保持穩定的可靠性。因此,電力產業的相關人員在考慮部署時,往往認為金屬空氣電池解決方案與成熟技術相比風險過高,阻礙了商業性投資和廣泛應用。這種猶豫不決的態度直接限制了市場以滿足全球能源需求所需的速度擴張的能力。目前的技術能力與所需的市場規模之間存在著巨大的差距。 2024年,長期儲能委員會報告稱,為了實現淨零排放電網,到2040年全球長期儲能容量需要擴大到8兆瓦。由於空氣電極持續不穩定,呼吸電池無法獲得所需容量的大部分,因此,這項技術仍然局限於專門的示範實驗領域,而不是被整合到廣泛的基礎設施中。
一個關鍵趨勢是可充電鋅空氣電池設計的演進,它超越了傳統的一次電池框架,並瞄準中長期儲能領域。創新公司正在開發先進的鋅再生技術,使這些系統能夠進行多次循環而不會像傳統設計那樣快速劣化,從而為商業微電網和電力公司提供了一種防火且經濟可行的選擇。這種向商業規模生產邁進的趨勢正在吸引大量投資,以進行實際檢驗。例如,CleanEnergy.ca 在 2024 年 6 月報道稱,e-Zinc 已成功資金籌措3,100 萬美元,用於擴建其試點生產設施。該公司旨在將鋅空氣系統定位為可靠的全天候儲能解決方案。同時,將固體電解質引入鋰空氣電池正逐漸成為解決液態呼吸式電池固有的不穩定性和安全隱患的最終方案。透過用堅固的固體陶瓷和聚合物複合材料取代揮發性有機溶劑,研究人員不僅成功降低了洩漏和電極碳化等風險,而且還實現了遠超現有鋰離子電池基準的理論能量密度。這種根本性的結構轉變對於支援下一代重型運輸設備和需要極高比能量的航空應用至關重要。 2024年11月,《ESS新聞》報道稱,Air Energy公司發布了一種新型固體鋰空氣電池測試樣品,該樣品展現出實現1200瓦時/公斤能量密度的潛力,約為傳統電池技術的四倍。
The Global Breathing Battery Market is projected to expand significantly, from USD 24.02 Billion in 2025 to USD 46.53 Billion by 2031, achieving an 11.65% Compound Annual Growth Rate. This market encompasses the innovation and commercialization of metal-air electrochemical cells, which employ ambient oxygen as a continuous cathode reactant to oxidize metal anodes like zinc, iron, or aluminum. Key factors propelling this growth are the high theoretical energy density of these systems, which reduces overall weight by negating the need for bulky oxidizer containment, and the ready availability of cost-effective raw materials, bolstering their economic feasibility. Moreover, the essential industrial demand for long-duration energy storage to mitigate grid intermittency caused by renewable sources acts as a fundamental growth driver, separate from transient consumer electronics demands. A major obstacle hindering widespread market adoption is the inherent technical challenge in ensuring the cycle life and electrical rechargeability of air electrodes, frequently leading to performance degradation from carbonation or corrosion. To contextualize the current scope of the broader long-duration energy storage sector, which includes metal-air systems, the global deployment pipeline stood at 0.22 terawatts in 2024, as reported by the Long Duration Energy Storage Council. This statistic highlights a considerable disparity between existing capacity and the necessary deployments required to achieve future net-zero emissions goals.
| Market Overview | |
|---|---|
| Forecast Period | 2027-2031 |
| Market Size 2025 | USD 24.02 Billion |
| Market Size 2031 | USD 46.53 Billion |
| CAGR 2026-2031 | 11.65% |
| Fastest Growing Segment | Automotive |
| Largest Market | Asia Pacific |
Market Driver
A primary driver for the adoption of metal-air technologies is the increasing demand for efficient, grid-scale renewable energy storage. Breathing batteries, unlike traditional lithium-ion systems which become economically unviable for discharge periods exceeding four hours, leverage plentiful metals such as iron and zinc to offer cost-effective, multi-day storage. This capability is crucial for effectively managing the intermittent nature of solar and wind power generation, and this industrial requirement is attracting substantial investment into commercialization. For instance, Form Energy announced in October 2024 their successful securing of $405 million in Series F financing to expedite the production of iron-air battery systems designed for 100-hour energy storage. Concurrently, the swift expansion of the long-range electric vehicle market is pushing the industry to seek solutions beyond the current performance limitations of existing battery chemistries. Manufacturers are actively pursuing high-energy-density alternatives to mitigate range anxiety, given that metal-air couples provide considerably higher specific energy by using atmospheric oxygen. This impetus is further amplified by the sheer volume of projected vehicle electrification; the International Energy Agency's 'Global EV Outlook 2024' reported in April 2024 that electric car sales were expected to hit around 17 million units by year-end, intensifying the need for next-generation storage. The availability of anode materials is vital for this scale, with the U.S. Geological Survey estimating global zinc reserves at 220 million tons in 2024, ensuring a stable supply chain for zinc-air battery configurations.
Market Challenge
A significant challenge hindering the expansion of the Global Breathing Battery Market is the technical complexity surrounding the cycle life and electrical rechargeability of air electrodes. These battery systems frequently suffer performance decline caused by carbonation, which occurs when atmospheric carbon dioxide reacts with the electrolyte, and by anode corrosion during successive charging cycles. Such physical deterioration markedly curtails the battery's operational lifespan, making it less dependable for large-scale, capital-intensive grid applications that demand consistent, multi-year reliability. As a result, prospective utility sector adopters often perceive metal-air solutions as excessively risky when compared to mature technologies, thereby impeding commercial investment and broader deployment. This reluctance directly restricts the market's capacity to scale at a rate essential for addressing global energy requirements. A vast disparity exists between current technical capabilities and the necessary market volume; the Long Duration Energy Storage Council reported in 2024 that global long-duration storage capacity must reach 8 terawatts by 2040 to achieve net-zero power grids. The persistent instability of air electrodes consequently prevents breathing batteries from securing a substantial portion of this needed capacity, effectively confining the technology to specialized demonstrations instead of widespread infrastructure integration.
Market Trends
A significant trend is the evolution towards rechargeable zinc-air battery designs, moving beyond conventional primary cells to specifically target the mid-to-long-duration energy storage segment. Innovators are developing advanced zinc regeneration methods that enable these systems to undergo multiple cycles without the rapid deterioration observed in previous designs, thereby presenting a fire-safe and economically viable option for commercial microgrids and utility uses. This drive towards commercial-scale production is drawing considerable investment for real-world validation. For example, CleanEnergy.ca reported in June 2024 that e-Zinc secured $31 million to expand its pilot manufacturing facility, aiming to position its zinc-air systems for dependable 24-hour energy storage. Concurrently, the integration of solid-state electrolytes into lithium-air cells is emerging as a conclusive answer to the intrinsic instability and safety concerns associated with liquid-based breathing batteries. By substituting volatile organic solvents with robust solid ceramic or polymer composites, researchers are successfully reducing risks such as leakage and electrode carbonation, while also unlocking theoretical energy densities that significantly exceed current lithium-ion benchmarks. This fundamental architectural shift is vital for supporting next-generation heavy-duty transportation and aviation applications that require exceptionally high specific energy. ESS News, in November 2024, highlighted that Air Energy launched a new solid-state lithium-air test cell, demonstrating the potential to achieve an energy density of 1,200 watt-hours per kilogram, which is almost four times that of traditional battery technologies.
Report Scope
In this report, the Global Breathing Battery Market has been segmented into the following categories, in addition to the industry trends which have also been detailed below:
Company Profiles: Detailed analysis of the major companies present in the Global Breathing Battery Market.
Global Breathing Battery Market report with the given market data, TechSci Research offers customizations according to a company's specific needs. The following customization options are available for the report: