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市场调查报告书
商品编码
1934208
电动乘用车零件市场-全球产业规模、份额、趋势、机会及预测(按车辆类型、动力类型、零件类型、地区和竞争格局划分,2021-2031年)Electric Passenger Car Components Market - Global Industry Size, Share, Trends Opportunity, and Forecast, Segmented By Vehicle Type, By Propulsion Type, By Component Type, By Region & Competition, and By Competition, 2021-2031F |
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全球电动乘用车零件市场预计将从 2025 年的 1,550.1 亿美元成长到 2031 年的 2,606.8 亿美元,复合年增长率为 9.05%。
该市场涵盖纯电动车 (BEV) 和插电式混合动力汽车(PHEV) 所必需的专用硬件,例如高压电池组、牵引马达、温度控管系统和功率逆变器。推动市场成长的主要因素是政府严格的排放法规和旨在加速从内燃机汽车转型的巨额财政奖励。根据中国汽车工业协会预测,2024 年新能源汽车销量预计将达到 1,287 万辆,年增 35.5%,证实了强劲的汽车需求正在直接推动对先进动力传动系统和储能解决方案的需求。
| 市场概览 | |
|---|---|
| 预测期 | 2027-2031 |
| 市场规模:2025年 | 1550.1亿美元 |
| 市场规模:2031年 | 2606.8亿美元 |
| 复合年增长率:2026-2031年 | 9.05% |
| 成长最快的细分市场 | 油电混合车 |
| 最大的市场 | 欧洲 |
然而,市场扩张面临一个重大障碍:电池製造关键原料供应链的不稳定性。镍、钴和锂的开采和加工高度依赖特定地区,这使得市场容易受到地缘政治风险和价格波动等因素的影响。这种波动会导致生产成本难以预测和零件交付延迟,从而严重阻碍全球电动车产能的平稳扩张。
推动市场成长的一个根本催化剂是原始设备製造商 (OEM) 向全电动汽车产品线的快速转型。汽车製造商正积极调整其生产策略,从内燃机转向专用电动平台,需要大幅提升电动动力系统和高压电池供应链的在地化程度。为了确保产能并减少对外部供应商的依赖,从而确保产量以实现雄心勃勃的电气化目标,汽车製造商投入了数十亿美元的资本。例如,丰田汽车公司在2025年2月发布的题为「丰田运作新的汽车电池工厂」的新闻稿中宣布,已在该州投资约140亿美元,建立一个专门生产电动动力传动系统零部件的基地。
同时,消费者对零排放和永续出行方式日益增长的兴趣正在推动电动乘用车的普及,并增加对相关硬体的需求。随着出行偏好转向环保选项,製造商正在加速生产电力电子设备和牵引马达以满足这一需求。主要市场的强劲销售业绩也印证了这一趋势。福特汽车在2025年1月发布的「福特电气化2024」新闻稿中指出,2024年美国电动车销量较上年增长34.8%。儘管存在地区差异,但该行业整体呈现强劲成长动能。欧洲汽车製造商协会(ACEA)在2025年宣布,2024年电池式电动车将占欧盟新车註册量的13.6%。
全球电动乘用车零件市场受到关键原料供应链波动性的显着限制。镍、钴和锂的开采和加工高度依赖特定地理区域,因此极易受到贸易中断和地缘政治不稳定的影响。这些因素导致关键矿物原料价格剧烈波动,直接影响牵引马达和高压电池组的生产成本。因此,製造商难以准确预测支出,导致投资决策延迟,并扰乱关键传动系统零件的生产计画。
这种不确定性严重阻碍了零件供应商高效扩大营运规模的能力。高企且波动剧烈的原物料成本可能会推高成品零件的价格,进而可能导致价格敏感型市场区隔领域电动车的普及率下降。这些市场逆风在汽车产业的关键地区尤其显着,这些地区的成长受到阻碍。根据欧洲汽车製造商协会(ACEA)的数据,到2024年,欧盟电池式电动车的市占率将达到13.6%。这一数字凸显了该行业在实现广泛市场渗透的同时,还要克服零件製造固有的成本压力和供应脆弱性等挑战。
为了克服充电速度的限制,市场正经历着向碳化硅 (SiC) 功率电子装置和 800 伏特电气架构的明显转变。透过将电压从标准的 400 伏特系统提高一倍,汽车製造商可以透过降低所需电流来提高效率并缩短充电时间。这使得可以使用更小的冷却组件和更轻的线束。这项技术进步推动了对先进硬体的需求,例如基于 SiC 的逆变器,这些硬体正逐渐成为中豪华电动车的标配,以优化续航里程。正如小鹏汽车在 2024 年 10 月发布的新闻稿《小鹏汽车 9 月电动车交付量创纪录,达 21,352 辆》中所述,该公司 9 月的交付量比去年同期增长了 39%,这证实了消费者对基于高效 800 伏地增长平台的碳化需求增长。
同时,磷酸锂铁(LFP)电池技术正迅速普及,以降低大规模生产车辆的製造成本。 LFP电池无需使用昂贵的镍和钴,并具备耐火性和稳定性,适用于标准续航里程的应用。这改变了温度控管硬体和电池管理系统的规格。这种化学成分的转变有效地将零件价格与贵金属市场的波动隔离开来,使製造商能够稳定其供应链。这一转变的规模是巨大的。根据国际能源总署(IEA)于2025年5月发布的《2025年全球电动车展望》,到2024年,磷酸锂铁锂电池将占全球电动车电池市场约50%的份额,这标誌着该行业的结构正朝着经济实惠的电气化方向发生重大转变。
The Global Electric Passenger Car Components Market is projected to expand from USD 155.01 Billion in 2025 to USD 260.68 Billion by 2031, reflecting a compound annual growth rate of 9.05%. This market encompasses specialized hardware vital for battery electric and plug-in hybrid vehicles, such as high-voltage battery packs, traction motors, thermal management systems, and power inverters. Growth is primarily fuelled by strict government emission mandates and significant financial incentives aimed at hastening the shift away from internal combustion engines. According to the China Association of Automobile Manufacturers, new energy vehicle sales reached 12.87 million units in 2024, a 35.5 percent year-on-year rise, confirming that robust vehicle demand is directly driving the need for sophisticated drivetrain and energy storage solutions.
| Market Overview | |
|---|---|
| Forecast Period | 2027-2031 |
| Market Size 2025 | USD 155.01 Billion |
| Market Size 2031 | USD 260.68 Billion |
| CAGR 2026-2031 | 9.05% |
| Fastest Growing Segment | Hybrid Electric Vehicle |
| Largest Market | Europe |
However, market expansion faces a major obstacle due to supply chain volatility regarding critical raw materials essential for battery manufacturing. The industry's heavy dependence on specific regions for mining and processing nickel, cobalt, and lithium exposes it to geopolitical risks and price instability. Such volatility causes unpredictable production costs and potential delays in component delivery, acting as a significant barrier to the smooth scaling of global electric vehicle production capabilities.
Market Driver
A fundamental catalyst for market growth is the rapid transition of Original Equipment Manufacturers (OEMs) toward all-electric vehicle lineups. Automakers are actively reorienting their manufacturing strategies from internal combustion engines to dedicated electric platforms, a shift that requires substantial supply chain localization for electric drivetrains and high-voltage batteries. This strategic realignment involves billions of dollars in capital expenditure to secure production capacity and minimize dependence on external suppliers, thereby ensuring output meets ambitious electrification goals. For instance, Toyota Motor Corporation confirmed in a February 2025 press release regarding its 'Toyota Powers On New North Carolina Automotive Battery Plant' that it has invested nearly $14 billion in the site to establish a dedicated hub for electrified powertrain components.
Simultaneously, growing consumer interest in zero-emission and sustainable mobility is driving the adoption of electric passenger vehicles, which increases the volume of necessary hardware. As transportation preferences shift toward environmentally friendly options, manufacturers are accelerating the production of power electronics and traction motors to satisfy this demand. This trend is reinforced by strong sales figures in key markets; Ford Motor Company reported in its 'Ford Electrifies 2024' press release from January 2025 that its U.S. electric vehicle sales rose by 34.8% in 2024 compared to the prior year. Although regional differences exist, the sector remains robust, with the European Automobile Manufacturers' Association noting in 2025 that battery-electric vehicles accounted for a 13.6% market share of all new EU car registrations in 2024.
Market Challenge
The Global Electric Passenger Car Components Market is significantly restrained by volatility within the supply chain for critical raw materials. Because the industry depends heavily on specific geographic locations for extracting and processing nickel, cobalt, and lithium, it is vulnerable to trade disruptions and geopolitical instability. These factors cause erratic price swings for essential mineral inputs, which directly destabilize the production costs of traction motors and high-voltage battery packs. Consequently, manufacturers struggle to accurately forecast expenses, resulting in delayed investment decisions and obstructed production schedules for vital drivetrain components.
This unpredictability severely hampers the ability of component suppliers to scale their operations efficiently. High and unstable raw material costs frequently lead to increased prices for finished components, potentially reducing electric vehicle adoption rates in price-sensitive market segments. Such market headwinds are evident in major automotive regions where growth has encountered resistance; according to the European Automobile Manufacturers' Association, the market share of battery electric cars in the European Union was 13.6 percent in 2024. This figure underscores the challenges the sector faces in achieving broad market penetration while navigating the cost pressures and supply vulnerabilities inherent in component manufacturing.
Market Trends
The market is experiencing a definitive move toward Silicon Carbide (SiC) power electronics and 800-volt electrical architectures to overcome charging speed constraints. By doubling the voltage from the standard 400-volt system, OEMs can enhance efficiency and shorten charging times through reduced current requirements, which allows for smaller cooling components and lighter wiring harnesses. This technological advancement drives the need for advanced hardware such as SiC-based inverters, which are increasingly becoming standard in mid-range and premium electric vehicles to optimize range. As noted by XPeng Inc. in an October 2024 press release titled 'XPENG delivers record 21,352 electric vehicles in September,' the company saw a 39 percent year-over-year increase in deliveries, confirming rising consumer demand for vehicles utilizing efficient 800-volt silicon carbide platforms.
Simultaneously, the use of Lithium Iron Phosphate (LFP) battery chemistries is growing rapidly to reduce manufacturing costs for mass-market vehicles. LFP cells remove the need for costly nickel and cobalt, providing a fire-resistant and stable solution for standard-range applications that changes the specifications for thermal hardware and battery management systems. This shift in chemistry effectively disconnects component pricing from the volatility of precious metal markets, enabling manufacturers to stabilize their supply chains. The magnitude of this transition is substantial; the International Energy Agency (IEA) reported in its 'Global EV Outlook 2025' from May 2025 that Lithium Iron Phosphate batteries accounted for nearly 50 percent of the global electric vehicle battery market in 2024, signaling a major industrial shift toward affordable electrification.
Report Scope
In this report, the Global Electric Passenger Car Components 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 Electric Passenger Car Components Market.
Global Electric Passenger Car Components 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: