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市場調查報告書
商品編碼
2138112
2034年電動巴士和公共交通電氣化市場預測-全球分析(按推進方式、巴士類型、電池類型、馬達類型、充電方式、充電地點、充電基礎設施、應用、最終用戶和地區分類)Electric Bus & Public Transit Electrification Market Forecasts To 2034 - Global Analysis By Propulsion Type, Bus Type, Battery Type, Electric Motor Type, Charging Type, Charging Location, Charging Infrastructure, Application, End User and By Geography |
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根據 Stratistics MRC 的數據,預計到 2026 年,全球電動巴士和公共交通電氣化市場規模將達到 496 億美元,並在預測期內以 16.1% 的複合年成長率成長,到 2034 年將達到 1,637 億美元。
電動巴士和公共交通電氣化市場涵蓋純電動巴士和混合動力巴士,以及公共交通電氣化所需的充電基礎設施和技術。這包括電動巴士平台、電池、充電系統、電力電子設備、車輛管理解決方案和相關服務。交通管理部門、地方政府、運輸業者和車主正在採用這些技術來取代傳統的柴油巴士。關鍵因素包括續航里程、電池規格、充電基礎設施、路線狀況、營運要求、車輛相容性和維護注意事項。法律規範、環境標準、公共交通政策和政府支持的電氣化項目影響著都市區、郊區和農村公共交通網路的採購決策和部署策略。
政府支持和電氣化政策
公共部門的各項措施正在推動整個交通網路採用電動公車。政府正在實施清潔旅行政策、排放氣體法規、財政獎勵措施、津貼、補貼以及專項採購計劃,以鼓勵運輸公司和營運商採用電動車。財政援助計畫也為充電站、車輛段現代化改造和相關電力基礎設施的投資提供了支持,有助於減輕車輛改造的部分投資需求。日益嚴格的公共交通環保要求促使營運商考慮柴油公車的替代方案。政府的各項計畫和監管措施共同為電動公車的採購、充電基礎設施的建設以及公共交通的全面電氣化提供了製度基礎。
車輛和基礎設施的初始成本很高
電動公車所需的前期巨額投資可能會阻礙公共運輸業者採用這種方案。除了購買配備電池和電力驅動系統的車輛外,營運商可能還需要為充電站建設、車庫電氣系統維修、併網、軟體以及員工培訓等提供資金。這些需求會為交通預算帶來沉重負擔,尤其對於財政資源有限的機構而言更是如此。雖然從生命週期成本的角度來看,電氣化在某些應用情境下可能是合理的,但初始投資仍然是採購過程中需要考慮的重要因素。因此,公共機構在將現有車輛更換為電動公車之前,應評估資金籌措方案、基礎設施成本、採購週期以及其他需要優先考慮的交通事項。
城際和區域運輸車輛的電氣化
隨著車輛和充電技術不斷滿足多樣化的營運需求,電動公車的應用前景正拓展至區域和城際交通領域。適當的電池配置、充電基礎設施和能源管理系統,配合營運時刻表,能夠滿足長途線路的需求。營運商可以在車輛段、終點站、交通樞紐以及營運網路沿線的特定地點安裝充電設施。製造商和基礎設施供應商可以專門為區域公車營運開發解決方案,包括適用於長途線路的車輛和充電系統。這一更廣泛的應用領域有望為整個公共交通服務的電氣化創造更多機遇,而不僅限於人口密集的都市區線路。
對電力基礎設施和能源供應的依賴
電動公車隊高度依賴可靠的電網和完善的充電基礎設施。大規模停車場可能需要相當大的電力容量,才能在規定的運作時間內為多輛車輛充電。電網容量限制、連接延遲、設備故障、擁塞和停電都可能擾亂充電作業和車輛運作。惡劣天氣和大範圍的電網故障會對公共交通運營帶來更大的風險。因此,各機構必須與電力公司、充電服務提供者和基礎設施承包商密切合作,同時制定備用電源和緊急應變計畫。隨著電動公車在公共交通車隊中佔比越來越大,對電力基礎設施日益成長的依賴可能會帶來營運上的脆弱性。
新冠疫情對公共交通造成了全面衝擊,客流量減少、營運收入下降、供應鏈中斷以及車輛採購延誤等問題都影響了電動公車的普及。疫情期間,資金緊張使得一些交通運輸業者難以撥出資金用於電動公車、充電系統和車輛段維修。生產和物流方面的限制也影響了電池、車輛零件和充電設備的供應。另一方面,一些電氣化舉措得益於經濟復甦措施和政府支持的清潔旅行計畫。隨著公共交通系統的復甦,營運商將工作重點更多地轉向車輛現代化、運作韌性、永續性和更清潔的交通技術。
在預測期內,電池電動巴士(BEB)細分市場預計將佔據最大的市場佔有率。
預計在預測期內,純電動公車將佔據最大的市場佔有率,這主要得益於其在都市區和農村公共交通服務中的廣泛應用。這些公車在營運過程中實現零排放,為公共交通營運商提供了傳統柴油車輛的替代方案。電池系統、充電基礎設施、續航里程和能源管理技術的進步,正不斷提升其對不同線路和時刻表的適應性。站點充電和車載充電解決方案的普及也促進了現有公共交通車隊採用純電動公車。此外,公共部門的清潔旅遊計畫和電氣化舉措也在推動純電動公車在交通網路中的部署。
預計在預測期內,按需出行領域將呈現最高的複合年成長率。
在預測期內,「按需出行」領域預計將呈現最高的成長率,這主要得益於靈活、數位化管理的交通服務日益普及。按需電動巴士非常適合需求波動較大或分散分散的地區,因為它們可以根據乘客需求調整路線和時間表。行動預訂系統、即時車輛追蹤、車輛管理平台和路線規劃技術可以加強用戶與營運商之間的協作。電動動力傳動系統也為這些服務提供了補充,為城市和社區出行提供了更清潔的交通選擇。與智慧出行平台的整合能夠實現更靈活的交通服務,同時支援高效的車輛利用率和對乘客需求的快速反應。
在預測期內,亞太地區預計將佔據最大的市場佔有率,這主要得益於大規模的電動公車部署和強大的區域製造基礎。中國將繼續保持主要貢獻者的地位,這得益於其公共交通政策和國內產能的支持,電動公車的廣泛部署。包括印度在內的其他市場也在實施大規模的電動公車採購和公共交通電氣化計畫。該地區擁有電動車製造位置、電池製造商、充電基礎設施公司和相關零件供應商的優勢。這些因素共同構成了一個完善的區域電動公共交通生態系統,使亞太地區成為電動公車部署的領導市場。
在預測期內,中東和非洲地區預計將呈現最高的複合年成長率,這主要得益於公共交通現代化和清潔城市交通系統發展的努力。各國政府和交通運輸業者正積極推廣電動公車,以排放氣體、提高車輛效率並取代老舊的傳統車輛。主要大都市地區正在增加對充電基礎設施和電動出行項目的投資,而人口成長和城市發展也推動了對高效公共交通的需求成長。汽車製造商、充電公司和技術供應商也積極參與區域電氣化項目,為電動公共交通生態系統的發展提供支援。
According to Stratistics MRC, the Global Electric Bus & Public Transit Electrification Market is accounted for $49.6 billion in 2026 and is expected to reach $163.7 billion by 2034 growing at a CAGR of 16.1% during the forecast period. The Electric Bus & Public Transit Electrification Market covers battery-electric and hybrid-electric buses, along with the charging infrastructure and technologies required for electrified public transportation. It incorporates electric bus platforms, batteries, charging systems, power electronics, fleet management solutions, and associated services. Transit agencies, local governments, transportation operators, and fleet owners adopt these technologies as alternatives to conventional diesel buses. Important factors include driving range, battery specifications, charging infrastructure, route conditions, operating requirements, fleet compatibility, and maintenance considerations. Regulatory frameworks, environmental standards, public transportation policies, and government-supported electrification programs shape purchasing decisions and deployment strategies within urban, suburban, and regional public transit networks.
Government Support and Electrification Policies
Public-sector initiatives are supporting the adoption of electric buses throughout transportation networks. Governments are implementing clean mobility policies, emissions regulations, financial incentives, grants, subsidies, and dedicated procurement programs to encourage transit agencies and operators to introduce electrified vehicles. Funding programs may also contribute toward charging stations, depot modernization, and associated electrical infrastructure, helping address some of the investment requirements involved in fleet conversion. Stricter environmental requirements for public transportation are encouraging operators to consider alternatives to diesel-powered buses. Together, government programs and regulatory measures provide an institutional foundation for electric fleet procurement, charging infrastructure installation, and broader public transit electrification.
High Initial Vehicle and Infrastructure Costs
The substantial capital required for electric buses can restrict their adoption among public transportation operators. In addition to purchasing vehicles equipped with batteries and electric propulsion systems, operators may need to fund charging stations, depot electrical upgrades, grid interconnections, software, and employee training. These requirements can place considerable pressure on transportation budgets, particularly for agencies operating with limited financial resources. Lifecycle cost considerations may support electrification in certain applications, but the initial investment remains an important procurement consideration. Public agencies must therefore evaluate financing options, infrastructure expenses, procurement cycles, and other competing transportation priorities before converting existing fleets to electric buses.
Electrification of Intercity and Regional Transit Fleets
Electric bus opportunities extend into regional and intercity transportation as vehicle and charging technologies continue to accommodate varied operating requirements. Longer-distance services can be supported through appropriate battery configurations, charging infrastructure, and energy-management systems designed around route schedules. Operators can establish charging facilities at depots, terminals, transportation hubs, and selected locations along service networks. Manufacturers and infrastructure providers can develop solutions specifically suited to regional bus operations, including vehicles and charging systems adapted to longer journeys. This broader application area can create additional opportunities for electrification across public transportation services beyond densely populated urban routes.
Dependence on Electricity Infrastructure and Energy Availability
Electric bus fleets rely heavily on dependable electricity networks and appropriately designed charging infrastructure. Large depots may require considerable power capacity to charge multiple vehicles within scheduled operating periods. Limited grid capacity, connection delays, equipment failures, congestion, and electricity interruptions can interfere with charging activities and vehicle availability. Severe weather and wider power-system disruptions may create additional risks for transit operations. Agencies therefore need to coordinate closely with utilities, charging providers, and infrastructure contractors while considering backup and contingency arrangements. Greater reliance on electricity infrastructure can introduce operational vulnerabilities when electrified buses represent a substantial portion of a transit fleet.
COVID-19 created significant disruptions across public transportation and influenced electric bus deployment through lower ridership, reduced transit revenues, supply chain interruptions, and postponed fleet procurement. Financial constraints made it more difficult for some transportation agencies to allocate funds toward electric buses, charging systems, and depot upgrades during the pandemic. Restrictions on manufacturing and logistics also affected the availability of batteries, vehicle components, and charging equipment. At the same time, economic recovery measures and government-supported clean mobility programs helped sustain selected electrification initiatives. As transit systems recovered, agencies placed greater emphasis on fleet modernization, operational resilience, sustainability, and cleaner transportation technologies.
The Battery Electric Bus segment is expected to be the largest during the forecast period
The Battery Electric Bus segment is expected to account for the largest market share during the forecast period, supported by its broad applicability across urban and regional transit services. These buses eliminate tailpipe emissions during operation and provide public transportation operators with an alternative to conventional diesel vehicles. Developments in battery systems, charging infrastructure, driving range, and energy-management technologies have expanded their suitability for diverse routes and operating schedules. The availability of depot charging and opportunity-charging solutions also facilitates integration into existing transit fleets. Furthermore, public-sector clean mobility programs and electrification initiatives are supporting the deployment of battery-electric buses within transportation networks.
The On-Demand Transit segment is expected to have the highest CAGR during the forecast period
Over the forecast period, the On-Demand Transit segment is predicted to witness the highest growth rate, driven by the increasing adoption of flexible and digitally managed transportation services. Electric buses operating on demand can modify routes and schedules based on passenger needs, making them appropriate for locations with fluctuating or widely distributed demand. Mobile booking systems, real-time vehicle tracking, fleet-management platforms, and route-planning technologies can strengthen coordination between users and operators. Electric powertrains also complement these services by providing a cleaner transportation option for urban and community mobility. Connections with intelligent mobility platforms can enable more adaptable transit services while supporting efficient fleet utilization and responsive passenger transportation.
During the forecast period, the Asia-Pacific region is expected to hold the largest market share, supported by substantial electric bus deployment and a strong regional manufacturing base. China remains a major contributor, with extensive electric bus adoption supported by public transportation policies and domestic production capabilities. Other markets, including India, are also implementing large-scale electric bus procurement and transit electrification programs. The region benefits from the presence of electric vehicle manufacturers, battery producers, charging infrastructure companies, and related component suppliers. Together, these factors have created a comprehensive regional ecosystem for electric public transportation and established Asia-Pacific as a leading market for electric bus deployment.
Over the forecast period, the Middle East & Africa region is anticipated to exhibit the highest CAGR, driven by efforts to modernize public transportation and develop cleaner urban mobility systems. Governments and transit operators are adopting electric bus initiatives to address transportation emissions, improve fleet efficiency, and replace aging conventional vehicles. Investments in charging infrastructure and electric mobility programs are emerging across major urban centers, while expanding populations and urban development are increasing the need for efficient public transportation. Vehicle manufacturers, charging companies, and technology providers are also participating in regional electrification projects, supporting the development of electric transit ecosystems.
Key players in the market
Some of the key players in Electric Bus & Public Transit Electrification Market include BYD Company Limited, Zhengzhou Yutong Bus Co., Ltd., AB Volvo, Daimler Truck AG, NFI Group Inc., Tata Motors Limited, VDL Groep, Solaris Bus & Coach Sp. z o.o., MAN Truck & Bus SE, Scania AB, Ashok Leyland Limited, JBM Auto Limited, Ebusco Holding N.V., Olectra Greentech Limited, ABB Ltd., Siemens AG, Hitachi Energy Ltd. and Kiepe Electric GmbH.
In April 2026, Yutong reported that multiple customers from Central Asia and Mongolia signed agreements during its "Shared Ecosystem, Shared Future" event. The agreements strengthened long-term cooperation with regional customers and supported Yutong's localization strategy for green public-transport solutions.
In February 2026, Daimler Buses signed an agreement with Wealthcap, representing the owner of Munich Central Bus Station, to install four public charging stations for electric buses. The project is intended to support electric intercity transportation, with Daimler Buses Solutions responsible for planning, construction, operation, service, and maintenance
Note: Tables for North America, Europe, APAC, South America, and Rest of the World (RoW) Regions are also represented in the same manner as above.