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市場調查報告書
商品編碼
2058872
2034年電動巴士市場預測:全球動力類型、電池類型、巴士長度、充電方式、座位數、電池容量、組件、應用、最終用戶和地區分析Electric Bus Market Forecasts to 2034 - Global Analysis By Propulsion Type, Battery Type, Bus Length, Charging Type, Seating Capacity, Battery Capacity, Component, Application, End User, and By Geography |
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根據 Stratistics MRC 的數據,預計到 2026 年,全球電動巴士市場規模將達到 279 億美元,並在預測期內以 14.9% 的複合年成長率成長,到 2034 年將達到 850 億美元。
電動巴士是零排放的公共交通工具,由電池組、燃料電池或混合動力系統動力來源,是傳統柴油和壓縮天然氣巴士的更清潔替代方案。這些車輛在全球減少都市區空氣污染、降低溫室氣體排放以及轉型為永續公共交通網路方面發揮核心作用。市場涵蓋電池組、電動馬達、燃料電池堆和充電基礎設施等關鍵零件,並廣泛應用於從城市交通到機場物流等各種領域,遍及全球已開發國家和新興市場。
政府實施了嚴格的排放法規和電氣化強制措施。
世界各國和地方政府都在積極制定公共交通車輛向零排放車輛過渡的計劃,這催生了對電動公車的強勁需求。許多城市已宣布了全面淘汰柴油公車的最後期限,並輔以補貼、稅收優惠和低排放氣體區政策。中國、歐洲和美國的一些州正在主導這些努力,電動車型在公共採購中也越來越受到重視。這些監管壓力使得獲利能力,迫使運輸公司和私人營運商加快車輛電氣化進程。監管合規要求和財政支持相結合,確保了成熟和新興交通網路市場的永續成長。
高額的初始購置成本和基礎設施要求
電動公車及其配套充電基礎設施所需的初始投資仍然遠高於傳統交通工具,這限制了預算緊張的營運商採用電動公車。電池組和充電系統需要大量投資,車輛改裝還需對車輛段維修、評估電網容量,並且在許多情況下還需要安裝新的變電站。即使在車輛的整個生命週期內,其總擁有成本具有優勢,但發展中地區的小規模運輸企業和營運商仍然難以證明這些支出的合理性。初始成本與長期收益之間的差距持續阻礙市場滲透,尤其是在政府補貼不足或時斷時續的地區。
電池技術和無線充電技術的進步
電池能量密度、快速充電能力和溫度控管的快速發展,為電動公車的推廣應用開闢了新的機會。固態電池和改良型磷酸鋰鐵鋰電池預計將帶來更長的續航里程、更短的充電時間和更高的安全性。公車站和車輛段的非接觸式充電技術,使得沿途的機械充電成為可能,從而降低了所需的電池容量並延長了運營時間。這些技術進步消除了續航里程和運作等傳統限制,實用化。製造商和運輸機構若能及早採用這些創新技術,便可獲得先發優勢。
原物料價格波動與供應鏈中斷
電動巴士的生產嚴重依賴鋰、鈷、鎳和稀土元素,而這些金屬的價格會因地緣政治緊張局勢、採礦限制以及精煉設施的區域集中而劇烈波動。疫情期間暴露出的供應鏈脆弱性依然存在,半導體短缺和電池材料供應瓶頸導致生產延誤和成本增加。這些壓力可能會降低製造商的利潤率,或迫使他們轉嫁成本,從而可能推遲車輛交付計劃。來自電動乘用車的競爭需求進一步加劇了材料供應的緊張,給規劃長期產能的巴士製造商和製定車輛更換週期預算的運輸機構帶來了不確定性。
疫情初期,由於封鎖、供應鏈中斷以及公共交通客流量急劇下降,電動公車的生產受到干擾,車輛訂單也隨之延遲。票價收入的大幅下降嚴重影響了許多市政當局的預算,原定的電氣化項目也被推遲。然而,在疫情復甦階段,人們對環保措施的關注度再次提升,各國政府開始將基礎建設資金轉向清潔交通途徑。此外,疫情也提高了人們對城市空氣品質與呼吸系統健康之間聯繫的認知,增強了公眾對零排放公車的支持。這些相互矛盾的因素促使電動公車的普及速度在短暫放緩後加快,疫情後的訂單量在許多地區都超過了疫情前的預期。
在預測期內,電池組領域預計將佔據最大的市場佔有率。
預計在預測期內,電池組仍將佔據最大的市場佔有率,這反映了其作為電動巴士中最關鍵、最昂貴的單一部件的地位。電池容量是運輸機構在評估電動巴士車型時最為關注的因素,因為它直接決定了車輛的續航里程、營運柔軟性和總擁有成本。鋰離子電池組通常佔車輛製造成本的30%至40%,推動能量密度和溫度控管的持續創新。隨著巴士製造商不斷追求更長的續航里程和更輕的重量,對電池技術的投資仍然佔據零件支出的很大一部分,這可以肯定的是,該細分市場將在整個預測期內保持主導地位。
在預測期內,穿梭巴士細分市場預計將呈現最高的複合年成長率。
在預測期內,穿梭巴士市場預計將呈現最高的成長率,這主要得益於企業園區、大學交通、飯店營運和私人住宅社區等領域應用範圍的不斷擴大。這些短途且路線可預測的線路非常適合部署純電動巴士,因為它們可以進行夜間充電,並且沿線無需建造大規模基礎設施。企業和機構擴大採用電動穿梭巴士,以滿足永續發展報告目標並加強其環境承諾。與大型線路巴士相比,該細分市場還具有其他優勢,例如由於車輛尺寸較小,電池成本更低,從而降低了私人營運商的准入門檻。這些有利的營運條件,加上日益成長的ESG(環境、社會和治理)壓力,正在推動該市場實現極速成長。
在預測期內,亞太地區預計將佔據最大的市場佔有率。這主要得益於中國作為全球最大的電動巴士生產國以及在推廣電動公共交通方面最為積極的國家所佔據的主導地位。在國家產業政策、本土製造能力以及嚴峻的都市區品質挑戰的推動下,數十萬輛電動巴士正在中國各大城市投入使用。印度、韓國和東南亞國家也正迅速效仿,各自製定了電氣化目標和採購計畫。該地區密集的城市人口、高公車客流量以及政府的大力支持,為電動巴士的生產和推廣創造了得天獨厚的生態系統,鞏固了亞太地區在整個預測期內的領先地位。
在預測期內,亞太地區預計將呈現最高的複合年成長率。這是因為與中國成熟的市場相比,該地區的開發中國家由於現有車輛基數較小,正在加速推進車輛電氣化。印度雄心勃勃的FAME計畫、印尼在其新首都努桑塔拉島開展的電動公車示範計畫以及越南不斷擴大的國內產能,都推動了電動車的快速普及。東南亞城市面臨嚴重的交通堵塞和空氣污染問題,在缺乏大規模傳統柴油基礎設施的情況下,正積極向電動出行轉型。亞洲開發銀行和世界銀行提供的國際金融援助也為此轉型提供了支持。起步較晚、政策支持力度大以及都市化,這些因素共同作用,不僅使亞太地區有望在市場規模上領先,而且有望成為全球成長最快的地區之一。
According to Stratistics MRC, the Global Electric Bus Market is accounted for $27.9 billion in 2026 and is expected to reach $85.0 billion by 2034 growing at a CAGR of 14.9% during the forecast period. Electric buses are zero-emission public transport vehicles powered by battery packs, fuel cells, or hybrid systems, offering a cleaner alternative to traditional diesel and CNG buses. These vehicles are central to global efforts to reduce urban air pollution, lower greenhouse gas emissions, and transition toward sustainable public transit networks. The market encompasses essential components including battery packs, electric motors, fuel cell stacks, and charging infrastructure, serving diverse applications from city transit to airport logistics across both developed and emerging economies worldwide.
Stringent government emission regulations and electrification mandates
National and local governments worldwide are implementing aggressive timelines for transitioning public transit fleets to zero-emission vehicles, creating strong demand for electric buses. Many cities have announced deadlines to phase out diesel buses entirely, supported by subsidies, tax incentives, and low-emission zone policies. China, Europe, and several US states lead these efforts, with public procurement increasingly favoring electric models. These regulatory pressures make diesel alternatives less viable over time, pushing transit agencies and private operators to accelerate fleet electrification. The combination of compliance requirements and financial support ensures sustained market growth across both mature and emerging transportation networks.
High upfront purchase costs and infrastructure requirements
The initial capital needed for electric buses and associated charging infrastructure remains substantially higher than conventional alternatives, limiting adoption among budget-constrained operators. Battery packs and charging systems represent significant investments, and fleet conversion requires depot upgrades, grid capacity assessments, and often new electrical substations. Smaller transit agencies and operators in developing regions face particular difficulty justifying these expenditures despite favorable total cost of ownership over vehicle lifetimes. The gap between upfront costs and long-term savings continues to restrain market penetration, especially where government subsidies are insufficient or inconsistently available.
Advancements in battery technology and wireless charging
Rapid progress in battery energy density, fast-charging capabilities, and thermal management is opening new deployment possibilities for electric buses. Solid-state batteries and improved lithium-iron-phosphate chemistries promise longer ranges, shorter charging times, and enhanced safety. Wireless inductive charging at bus stops and depots enables opportunity charging along routes, reducing battery size requirements and extending operational hours. These technological improvements address historical limitations of range anxiety and downtime, making electric buses viable for intercity and long-distance applications previously dominated by diesel. Early adoption of these innovations creates first-mover advantages for manufacturers and transit agencies.
Volatility in raw material prices and supply chain disruptions
Electric bus production depends heavily on lithium, cobalt, nickel, and rare earth metals, whose prices fluctuate dramatically due to geopolitical tensions, mining constraints, and concentrated refining geographies. Supply chain vulnerabilities exposed during the pandemic persist, with semiconductor shortages and battery material bottlenecks causing production delays and cost increases. These pressures can reduce manufacturer margins or force price hikes passed to buyers, potentially slowing fleet conversion timelines. Competing demand from electric passenger vehicles further strains material availability, creating uncertainty for bus manufacturers planning long-term production capacity and for transit agencies budgeting replacement cycles.
The pandemic initially disrupted electric bus production and delayed fleet orders due to lockdowns, supply chain interruptions, and sharp declines in public transit ridership. Many municipal budgets faced severe strain as fare revenues collapsed, pushing planned electrification projects to later dates. However, the recovery period saw renewed focus on green stimulus measures, with governments directing infrastructure funds toward clean transportation. The crisis also heightened awareness of urban air quality's link to respiratory health, strengthening public support for zero-emission buses. These countervailing forces resulted in a temporary slowdown followed by accelerated adoption, with post-pandemic order volumes surpassing pre-crisis projections in many regions.
The Battery Pack segment is expected to be the largest during the forecast period
The Battery Pack segment is expected to account for the largest market share during the forecast period, reflecting its position as the single most critical and costly component of any electric bus. Battery capacity directly determines vehicle range, operational flexibility, and total cost of ownership, making it the primary focus for transit agencies evaluating electric models. Lithium-ion battery packs typically represent 30-40% of vehicle manufacturing costs, driving ongoing innovation in energy density and thermal management. As bus manufacturers seek to extend range between charges and reduce weight, investment in battery technology continues to dominate component spending, ensuring this segment maintains its leading share throughout the forecast timeline.
The Shuttle Buses segment is expected to have the highest CAGR during the forecast period
Over the forecast period, the Shuttle Buses segment is predicted to witness the highest growth rate, driven by expanding applications in corporate campuses, university transport, hotel operations, and private residential communities. These low-mileage, predictable-route operations are ideal for battery-electric adoption, as they allow overnight charging and do not require extensive on-route infrastructure. Companies and institutions are increasingly adopting electric shuttles to meet sustainability reporting goals and enhance their environmental credentials. The segment also benefits from smaller vehicle sizes that reduce battery costs compared to full-size transit buses, lowering entry barriers for private operators. This combination of favorable operating conditions and growing ESG pressure fuels exceptionally rapid expansion.
During the forecast period, the Asia Pacific region is expected to hold the largest market share, led by China's dominant position as both the world's largest electric bus manufacturer and the most aggressive adopter of electric public transit. Chinese cities have deployed hundreds of thousands of electric buses, supported by national industrial policies, local manufacturing capabilities, and severe urban air quality challenges. India, South Korea, and Southeast Asian nations are rapidly following with their own electrification targets and procurement programs. The region's dense urban populations, high bus ridership, and strong government backing create an unmatched ecosystem for electric bus production and deployment, securing Asia Pacific's leadership throughout the forecast period.
Over the forecast period, the Asia Pacific region is anticipated to exhibit the highest CAGR, as developing economies within the region accelerate fleet electrification from a smaller current base compared to China's mature market. India's ambitious FAME scheme, Indonesia's electric bus pilot programs in new capital Nusantara, and Vietnam's growing indigenous manufacturing are creating exceptionally rapid adoption curves. Southeast Asian cities facing severe congestion and air pollution are leapfrogging to electric mobility without extensive legacy diesel infrastructure. International funding from Asian Development Bank and World Bank supports these transitions. The combination of late-start momentum, strong policy support, and urbanization rates ensures Asia Pacific not only leads in market size but also posts the fastest growth rate globally.
Key players in the market
Some of the key players in Electric Bus Market include BYD Company Ltd, Yutong Bus Co Ltd, Xiamen King Long United Automotive Industry Co Ltd, CRRC Corporation Limited, Zhejiang Geely Holding Group, AB Volvo, Solaris Bus & Coach, Daimler Truck AG, NFI Group Inc, Tata Motors Limited, VDL Groep, Ebusco BV, Scania AB, MAN Truck & Bus SE and Blue Bird Corporation.
In April 2026, Daimler Buses announced an investment of up to €200 million in its service ecosystem and confirmed the introduction of over-the-air software updates for its electric bus fleet.
In January 2026, Geely Auto announced that its New Energy Vehicle (NEV) sales reached 1,687,767 units in 2025, a 90% year-on-year increase, successfully meeting its annual targets for the "Intelligent Geely 2025" strategy.
In March 2025, BYD Company Limited launched its next-generation 12-meter battery electric city bus in Europe, featuring LFP blade batteries and enhanced range to improve vehicle durability and safety for urban transit authorities.
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.