Electric Bus Market: By Vehicle Type By Battery Type By End User and Region Forecast 2020-2031
Electric Bus Market size was valued at US$ 9,793.4 million in 2024 and is expected to reach US$ 24,057.8 million by 2031, growing at a significant CAGR of 13.7% from 2025-2031. The market refers to the global industry focused on the production, distribution, and adoption of battery-powered buses designed for public and private transportation. Unlike conventional diesel or gasoline-powered buses, electric buses operate using rechargeable lithium-ion or solid-state batteries, significantly reducing carbon emissions and reliance on fossil fuels. With governments and municipal bodies enforcing stringent emission norms and promoting eco-friendly transportation alternatives, the market has witnessed a surge in investments, technological advancements, and infrastructure development. The adoption of electric buses is further fueled by their cost-effectiveness in the long run, owing to lower fuel and maintenance costs compared to traditional internal combustion engine (ICE) buses.
The market for electric buses has experienced rapid growth in recent years, primarily driven by increasing environmental awareness and supportive government policies such as subsidies, incentives, and investments in charging infrastructure. Asia-Pacific, particularly China, dominates the market due to strong government initiatives and extensive electric vehicle manufacturing capabilities. Meanwhile, North America and Europe are also witnessing accelerated adoption, with major cities committing to transitioning their public transit fleets to fully electric alternatives. Key industry players are continuously innovating, focusing on battery efficiency, extended range, and reduced charging times, which are crucial factors in enhancing the viability and appeal of electric buses globally.
Based on the type:
Battery Electric Vehicles (BEVs) are the dominant segment in the market, driven by technological advancements, declining battery costs, and strong government support for zero-emission transportation. Unlike Plug-In Hybrid Electric Vehicles (PHEVs) and Fuel Cell Electric Vehicles (FCEVs), BEVs operate solely on lithium-ion or solid-state batteries, eliminating dependence on fossil fuels. With improvements in battery efficiency, range, and fast-charging capabilities, BEVs have become the preferred choice for urban public transportation networks worldwide. In countries like China, India, and the United States, large-scale government initiatives such as subsidies, incentives, and infrastructure development programs are accelerating BEV adoption. For instance, China’s New Energy Vehicle (NEV) policy has led to the deployment of over 600,000 battery-electric buses, making it the largest market globally. Similarly, Europe and North America are investing heavily in expanding charging networks and offering grants to transit agencies for BEV fleet expansion. The declining battery costs, reaching below $100 per kWh, make BEVs more cost-competitive than other electric bus types. Additionally, lower maintenance costs and improved energy efficiency further enhance their appeal. With increasing environmental concerns and policy-driven electrification efforts, BEVs are expected to dominate the market in the coming years.
Based on the battery type:
Lithium Iron Phosphate (LFP) batteries are emerging as the leading battery type in the market, primarily due to their superior safety, longer lifespan, and cost-effectiveness compared to Lithium Nickel Manganese Cobalt Oxide (NMC) batteries. LFP batteries are known for their thermal stability and resistance to overheating, reducing the risk of fire hazards, which is a crucial factor in public transportation. Additionally, they offer a longer cycle life, often exceeding 4,000 charge cycles, making them highly durable for electric buses that operate daily on fixed routes. The absence of cobalt in LFP batteries also makes them more sustainable and cost-effective, as cobalt prices are highly volatile and linked to ethical mining concerns. China, the largest market for electric buses, has widely adopted LFP technology, with major manufacturers like BYD and Yutong prioritizing its integration into their fleets. The declining cost of LFP battery production, coupled with advancements in energy density, has further strengthened its market position. While NMC batteries offer higher energy density, making them ideal for long-range applications, LFP remains the preferred choice for urban transit due to its reliability, affordability, and safety features. As a result, LFP technology is expected to dominate the electric bus battery market in the coming years.
Based on the application
Intracity electric buses are leading the market, primarily driven by government initiatives, rising urban pollution levels, and increasing public transportation demand. Major metropolitan areas worldwide are transitioning to electric buses as part of sustainable urban mobility plans, aiming to reduce carbon emissions and dependence on fossil fuels. With cities facing stringent emission regulations, many governments are providing subsidies and incentives to accelerate the adoption of electric buses for daily urban commutes. Municipal transportation authorities are prioritizing electric bus fleets to comply with regulations such as the European Union’s Clean Vehicles Directive and China’s New Energy Vehicle (NEV) policies. Additionally, intracity electric buses are preferred due to their lower range requirements, allowing them to utilize smaller and more cost-effective battery packs. Frequent stops and shorter travel distances within city limits align well with the operational efficiency of battery electric vehicles (BEVs), reducing overall costs and optimizing charging infrastructure. Leading manufacturers, including BYD, Proterra, and Volvo, are expanding their intracity electric bus offerings to cater to increasing demand. As urban congestion continues to rise, along with the need for efficient, low-emission public transport, intracity electric buses will continue to dominate the market, solidifying their position as the primary segment driving electric bus adoption globally.
Based on the end-user:
The public sector is the dominant end-user in the market, primarily driven by government initiatives, stringent emission regulations, and investments in sustainable public transportation. Governments across the globe are increasingly prioritizing the adoption of electric buses to reduce urban pollution and carbon emissions, aligning with their climate action goals. Many nations have implemented subsidy programs, tax incentives, and funding schemes to facilitate the transition of public bus fleets from diesel-powered vehicles to battery-electric or fuel cell buses. For example, China, the European Union, and the United States have introduced electrification mandates for public transportation, requiring municipal fleets to integrate zero-emission buses within specific timeframes. Moreover, public transit agencies benefit from economies of scale, enabling them to procure large fleets of electric buses and invest in charging infrastructure. Cities such as Shenzhen, London, and Los Angeles have already deployed thousands of electric buses, significantly reducing fuel costs and enhancing energy efficiency. Additionally, as urban congestion increases, governments are encouraging mass transit solutions, further bolstering the demand for electric public buses. With continued policy support, advancements in battery technology, and increasing investments in smart city mobility, the public sector will continue to lead the global market, driving widespread adoption across metropolitan regions.
Study Period
2025-2031Base Year
2025CAGR
13.7%Largest Market
Asia-PacificFastest Growing Market
North-America
One of the key drivers of the market is significant government backing in the form of policies, subsidies, and strict emission standards. Governments around the world are developing regulations to cut carbon emissions and combat climate change, making electric buses an important part of sustainable urban transit. For example, China has established aggressive rules requiring the electrification of public transport fleets, resulting in a considerable increase in electric bus usage. Similarly, the European Union has set severe emission objectives for the European Green Deal, requiring transit agencies to shift to zero-emission public transport. Additionally, financial incentives such as grants, tax benefits, and reduced import duties on electric vehicle components are making electric buses more affordable for fleet operators. Countries like India have introduced schemes such as the Faster Adoption and Manufacturing of Hybrid and Electric Vehicles (FAME), which provides financial aid for electric bus purchases. Moreover, municipalities in North America are setting ambitious goals to phase out diesel buses and transition entirely to electric fleets, further propelling market growth. These government-driven efforts, combined with advancements in battery technology and lower total ownership costs, are positioning electric buses as the future of public transportation.
Despite increasing use of electric buses, the market faces major obstacles, mainly to the high initial investment costs associated with vehicle acquisition and charging infrastructure construction. Electric buses have higher upfront expenses than regular diesel or CNG buses, owing primarily to the high cost of batteries. Fleet operators frequently struggle with the significant capital required to migrate to electric fleets, particularly in underdeveloped nations where government subsidies may be scarce. Furthermore, charging infrastructure remains inadequate in many areas, resulting in operational inefficiencies. The demand for extensive fast-charging stations, grid upgrades, and maintenance facilities creates a substantial financial and logistical challenge. In many cities, power grids are not yet equipped to handle the increased demand from large-scale electric bus fleets, leading to concerns over grid stability. Furthermore, the longer charging times compared to refueling diesel buses create scheduling challenges for transit agencies. While battery technology is improving, range anxiety and limited charging availability remain key concerns. To overcome these restraints, investment in robust infrastructure, cost reductions in battery production, and innovative financing models will be necessary to facilitate a smoother transition towards electric bus adoption on a global scale.
Rapid urbanisation and rising demand for efficient public transportation systems in emerging nations create a substantial potential opportunity for the market. Countries in Southeast Asia, Latin America, and Africa are gradually transitioning to electric transportation as part of their long-term sustainability objectives. With growing fuel expenses and worries about air pollution, cities in India, Brazil, and South Africa are investing in electric bus fleets to modernise public transportation. Furthermore, international financial institutions such as the World Bank and the Asian Development Bank are providing finance and technical help to promote the use of electric buses in developing countries. Another major opportunity lies in smart city initiatives, where governments are integrating electric buses with digital technologies such as telematics, real-time tracking, and AI-driven route optimization to enhance public transport efficiency. For instance, Singapore and Dubai are implementing AI-powered fleet management systems that optimize energy consumption and reduce congestion. Furthermore, private sector investments in charging infrastructure and public-private partnerships are expanding the market’s growth potential. As more cities across the globe prioritize electrification and smart urban planning, the demand for electric buses is expected to surge in emerging economies.
The ongoing advancement of battery technology and the development of fast-charging infrastructure are two important trends influencing the market. The emergence of solid-state batteries, which have higher energy density, improved safety, and faster charging periods than standard lithium-ion batteries, is transforming the market. Companies are investing in research and development to improve battery efficiency, allowing electric buses to travel longer distances with less charging time. Furthermore, wireless and ultra-fast charging solutions are being integrated into urban transport systems, allowing buses to charge quickly at depots and throughout their routes without disturbing service. European cities, such as London and Paris, are deploying opportunity charging stations, where buses can recharge in a few minutes during scheduled stops. Meanwhile, China is leading the way in battery-swapping technology, allowing electric buses to replace depleted batteries within minutes, reducing downtime significantly. This trend is crucial in addressing concerns over range limitations and charging delays, making electric buses more practical for widespread adoption. With ongoing developments in solid-state batteries, fast-charging networks, and grid integration, the efficiency and reliability of electric buses are improving, further accelerating market expansion.
Report Benchmarks |
Details |
Report Study Period |
2025-2031 |
Market Size in 2024 |
US$ 9,793.4 million |
Market Size in 2031 |
US$ 24,057.8 million |
Market CAGR |
13.7% |
By Type |
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By Battery Type |
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By Application |
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By End User |
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By Region |
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PBI Analysts anticipate that the market is experiencing significant growth, driven by increasing government regulations, advancements in battery technology, and a global push toward sustainable public transportation. Analysts observe that stringent carbon emission reduction targets and incentives for electric vehicle adoption have accelerated the transition from diesel-powered buses to battery-electric and fuel cell-based models. Countries such as China, the U.S., and several European nations are implementing policies that mandate the electrification of public transport fleets, further stimulating market expansion. Additionally, the declining cost of lithium-ion batteries and improvements in charging infrastructure are enhancing the feasibility and cost-effectiveness of electric buses for both urban and intercity applications. Market experts also highlight the emergence of innovative business models, including battery leasing and charging-as-a-service, which reduce the upfront cost burden for transit operators. The Asia-Pacific region, particularly China, leads the market with the highest number of electric bus deployments, while Europe and North America are witnessing rapid adoption through government-backed initiatives. Challenges such as high initial investment costs and limited charging infrastructure remain, but technological advancements and supportive policies are expected to drive further market penetration. Analysts predict that the market will continue its upward trajectory, reshaping the future of sustainable transportation worldwide.
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The electric bus market was valued at US$ 9,793.4 million in 2024 and is projected to reach US$ 24,057.8 million by 2031 at a CAGR of 13.7%.
In our report, we provide 12-15 market players’ information into the report. However, based on the client’s request we will provide additional country and regional market players information as well.
One of the key drivers of the market is the increasing government incentives and regulatory policies aimed at reducing carbon emissions. Governments worldwide are offering subsidies, tax benefits, and funding programs to promote electric public transport, making electric buses a cost-effective and environmentally sustainable alternative to traditional diesel buses.
A major trend in the market is the advancement of battery technology and fast-charging solutions. Innovations such as solid-state batteries, wireless charging, and ultra-fast charging stations are improving the efficiency and range of electric buses, making them more viable for long-distance and high-frequency routes.
1.Executive Summary |
2.Global Electric Bus Market Introduction |
2.1.Global Electric Bus Market - Taxonomy |
2.2.Global Electric Bus Market - Definitions |
2.2.1.Type |
2.2.2.Battery Type |
2.2.3. End User |
2.2.4.Product Type |
2.2.5.Region |
3.Global Electric Bus Market Dynamics |
3.1. Drivers |
3.2. Restraints |
3.3. Opportunities/Unmet Needs of the Market |
3.4. Trends |
3.5. Product Landscape |
3.6. New Product Launches |
3.7. Impact of COVID 19 on Market |
4.Global Electric Bus Market Analysis, 2020 - 2024 and Forecast 2025 - 2031 |
4.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
4.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) |
4.3. Market Opportunity Analysis |
5.Global Electric Bus Market By Type, 2020 - 2024 and Forecast 2025 - 2031 (Sales Value USD Million) |
5.1. Battery Electric Vehicle |
5.1.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
5.1.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
5.1.3. Market Opportunity Analysis |
5.2. Plug-In Hybrid Electric Vehicle |
5.2.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
5.2.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
5.2.3. Market Opportunity Analysis |
5.3. Fuel Cell Electric Vehicle |
5.3.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
5.3.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
5.3.3. Market Opportunity Analysis |
6.Global Electric Bus Market By Battery Type , 2020 - 2024 and Forecast 2025 - 2031 (Sales Value USD Million) |
6.1. Lithium Nickel Manganese Cobalt Oxide |
6.1.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
6.1.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
6.1.3. Market Opportunity Analysis |
6.2. Lithium Iron Phosphate |
6.2.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
6.2.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
6.2.3. Market Opportunity Analysis |
7.Global Electric Bus Market By End User, 2020 - 2024 and Forecast 2025 - 2031 (Sales Value USD Million) |
7.1. Public |
7.1.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
7.1.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
7.1.3. Market Opportunity Analysis |
7.2. Private |
7.2.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
7.2.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
7.2.3. Market Opportunity Analysis |
8.Global Electric Bus Market By Product Type , 2020 - 2024 and Forecast 2025 - 2031 (Sales Value USD Million) |
9.Global Electric Bus Market By Region, 2020 - 2024 and Forecast 2025 - 2031 (Sales Value USD Million) |
9.1. North America |
9.1.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
9.1.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
9.1.3. Market Opportunity Analysis |
9.2. Europe |
9.2.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
9.2.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
9.2.3. Market Opportunity Analysis |
9.3. Asia Pacific (APAC) |
9.3.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
9.3.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
9.3.3. Market Opportunity Analysis |
9.4. Middle East and Africa (MEA) |
9.4.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
9.4.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
9.4.3. Market Opportunity Analysis |
9.5. Latin America |
9.5.1. Market Analysis, 2020 - 2024 and Forecast, 2025 - 2031, (Sales Value USD Million) |
9.5.2. Year-Over-Year (Y-o-Y) Growth Analysis (%) and Market Share Analysis (%) |
9.5.3. Market Opportunity Analysis |
10.North America Electric Bus Market ,2020 - 2024 and Forecast 2025 - 2031 (Sales Value USD Million) |
10.1. Type Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
10.1.1.Battery Electric Vehicle |
10.1.2.Plug-In Hybrid Electric Vehicle |
10.1.3.Fuel Cell Electric Vehicle |
10.2. Battery Type Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
10.2.1.Lithium Nickel Manganese Cobalt Oxide |
10.2.2.Lithium Iron Phosphate |
10.3. End User Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
10.3.1.Public |
10.3.2.Private |
10.4. Product Type Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
10.5. Country Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
10.5.1.United States of America (USA) |
10.5.2.Canada |
11.Europe Electric Bus Market ,2020 - 2024 and Forecast 2025 - 2031 (Sales Value USD Million) |
11.1. Type Analysis and Forecast by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
11.1.1.Battery Electric Vehicle |
11.1.2.Plug-In Hybrid Electric Vehicle |
11.1.3.Fuel Cell Electric Vehicle |
11.2. Battery Type Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
11.2.1.Lithium Nickel Manganese Cobalt Oxide |
11.2.2.Lithium Iron Phosphate |
11.3. End User Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
11.3.1.Public |
11.3.2.Private |
11.4. Product Type Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
11.5. Country Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
11.5.1.Germany |
11.5.2.France |
11.5.3.Italy |
11.5.4.United Kingdom (UK) |
11.5.5.Spain |
12.Asia Pacific (APAC) Electric Bus Market ,2020 - 2024 and Forecast 2025 - 2031 (Sales Value USD Million) |
12.1. Type Analysis and Forecast by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
12.1.1.Battery Electric Vehicle |
12.1.2.Plug-In Hybrid Electric Vehicle |
12.1.3.Fuel Cell Electric Vehicle |
12.2. Battery Type Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
12.2.1.Lithium Nickel Manganese Cobalt Oxide |
12.2.2.Lithium Iron Phosphate |
12.3. End User Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
12.3.1.Public |
12.3.2.Private |
12.4. Product Type Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
12.5. Country Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
12.5.1.China |
12.5.2.India |
12.5.3.Australia and New Zealand (ANZ) |
12.5.4.Japan |
12.5.5.Rest of APAC |
13.Middle East and Africa (MEA) Electric Bus Market ,2020 - 2024 and Forecast 2025 - 2031 (Sales Value USD Million) |
13.1. Type Analysis and Forecast by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
13.1.1.Battery Electric Vehicle |
13.1.2.Plug-In Hybrid Electric Vehicle |
13.1.3.Fuel Cell Electric Vehicle |
13.2. Battery Type Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
13.2.1.Lithium Nickel Manganese Cobalt Oxide |
13.2.2.Lithium Iron Phosphate |
13.3. End User Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
13.3.1.Public |
13.3.2.Private |
13.4. Product Type Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
13.5. Country Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
13.5.1.GCC Countries |
13.5.2.South Africa |
13.5.3.Rest of MEA |
14.Latin America Electric Bus Market ,2020 - 2024 and Forecast 2025 - 2031 (Sales Value USD Million) |
14.1. Type Analysis and Forecast by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
14.1.1.Battery Electric Vehicle |
14.1.2.Plug-In Hybrid Electric Vehicle |
14.1.3.Fuel Cell Electric Vehicle |
14.2. Battery Type Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
14.2.1.Lithium Nickel Manganese Cobalt Oxide |
14.2.2.Lithium Iron Phosphate |
14.3. End User Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
14.3.1.Public |
14.3.2.Private |
14.4. Product Type Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
14.5. Country Analysis 2020 - 2024 and Forecast 2025 - 2031 by Sales Value USD Million, Y-o-Y Growth (%), and Market Share (%) |
14.5.1.Brazil |
14.5.2.Mexico |
14.5.3.Rest of LA |
15. Competition Landscape |
15.1. Market Player Profiles (Introduction, Brand/Product Sales, Financial Analysis, Product Offerings, Key Developments, Collaborations, M & A, Strategies, and SWOT Analysis) |
15.2.1.BYD Company Ltd. |
15.2.2.AB Volvo |
15.2.3.Proterra |
15.2.4.Nissan Motor Corporation |
15.2.5.Ashok Leyland Ltd. |
15.2.6.Daimler Truck AG |
15.2.7.TATA Motors Ltd. |
15.2.8.Hyundai Motor Company |
15.2.9.Zhengzhou Yutong Bus Co. Ltd. |
15.2.10.TSUNEISHI SHIPBUILDING Co., Ltd. |
16. Research Methodology |
17. Appendix and Abbreviations |
Key Market Players