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環境に配慮した輸送の世界市場(〜2020年):車両および燃料における新技術の市場投入を促進する厳格な規制枠組

Clean Transportation Industry to 2020 - Strict Regulatory Framework to Push New Technologies in Vehicles and Fuels into the Market

発行 GBI Research 商品コード 189217
出版日 ページ情報 英文 97 Pages
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環境に配慮した輸送の世界市場(〜2020年):車両および燃料における新技術の市場投入を促進する厳格な規制枠組 Clean Transportation Industry to 2020 - Strict Regulatory Framework to Push New Technologies in Vehicles and Fuels into the Market
出版日: 2011年04月11日 ページ情報: 英文 97 Pages
概要

バイオ燃料は排出量を削減し、持続可能な環境の維持に貢献することから、世界的な温室効果ガス削減義務とも相まって、今後世界の輸送部門における利用が増加することが期待されています。同時に自動車業界も、山積する環境問題および外国産石油への依存度を低下するために、ハイブリッド技術に向けた大きな転換期にあります。世界のハイブリッド車市場は2020年には2,349億米ドルの規模に達すると見込まれており、また世界のHEV用バッテリー市場も2020年には194億米ドルに達すると見込まれています。

当レポートでは、環境に配慮した輸送の世界市場について包括的に調査分析し、ハイブリッド車、輸送用バイオ燃料、およびHEV用バッテリーの市場動向分析、成長促進および阻害要因の分析、規制状況をまとめるとともに、各市場の売上予測を提示するなど、概略以下の構成でお届けします。

第1章 目次

第2章 環境に配慮した輸送の世界市場:定義

  • 輸送用バイオ燃料
    • イントロダクション
    • バイオ燃料の分類
    • 調査手法
  • ハイブリッド車
  • 主要なHEV用先進バッテリー技術
    • リチウムイオン電池
    • ニッケル水素電池
  • GBI Researchのレポート指針

第3章 世界のハイブリッド車市場:分析および予測

  • 世界のハイブリッド車市場:市場動向分析
    • 世界のハイブリッド車市場:主な成長促進要因
    • 規制による促進:購入インセンティブ、税制上の優遇措置および購入義務
    • 石油依存度の低下
    • 不安定な石油価格
    • 環境および気候変化に関する懸念
  • 世界のハイブリッド車市場:主な成長阻害要因
    • 比較的高い価格
    • 消費者の惰性
    • 再充電インフラの欠如および関連課題
  • 世界のハイブリッド車市場:売上
    • 世界のハイブリッド車市場:地域別売上(10億米ドル)
  • 世界のハイブリッド車市場:規制枠組
    • ハイブリッド車の国際規格
    • ハイブリッド車の国際規格団体
    • ハイブリッド車の国際的な推進プログラム

第4章 世界の輸送用バイオ燃料市場:分析および予測

  • 世界の輸送用バイオ燃料市場:市場動向分析
    • 世界の輸送用バイオ燃料市場:主な成長促進要因
    • 世界の輸送用バイオ燃料市場:主な成長阻害要因
    • 世界の輸送用バイオ燃料市場:主な課題
  • 世界の輸送用バイオ燃料市場:売上
    • 世界の輸送用バイオ燃料市場:バイオ燃料タイプ別売上(10億米ドル)
    • 世界の輸送用バイオ燃料市場:地域別売上(10億米ドル)
  • 世界の輸送用バイオ燃料市場:主要国の規制および政策
    • 米国:輸送用バイオ燃料市場:主な規制および政策
    • ブラジル:輸送用バイオ燃料市場:主な規制および政策
    • カナダ:輸送用バイオ燃料市場:主な規制および政策
    • ドイツ:輸送用バイオ燃料市場:主な規制および政策
    • フランス:輸送用バイオ燃料市場:主な規制および政策
    • イタリア:輸送用バイオ燃料市場:主な規制および政策
    • 中国:輸送用バイオ燃料市場:主な規制および政策
    • インド:輸送用バイオ燃料市場:主な規制および政策
    • タイ:輸送用バイオ燃料市場:主な規制および政策
    • マレーシア:輸送用バイオ燃料市場:主な規制および政策

第5章 世界のHEV用バッテリー市場:分析および予測

  • 世界のHEV用バッテリー市場:市場動向分析
    • 世界のHEV用バッテリー市場:主な発展促進要因
    • 世界のHEV用バッテリー市場:主な発展阻害要因
  • 世界のHEV用バッテリー市場:売上
    • 世界のHEV用バッテリー市場:地域別売上(10億米ドル)

第6章 付録

図表

目次
Product Code: GBICT0040ICR

Summary

The importance of clean transportation has increased over the last few years because of growing concern to reduce emissions from the transportation sector. Clean transportation includes application of advanced batteries, hybrid vehicles and biofuel which are replacing the conventional technologies and becoming mainstream technologies. Hence the demand of these sectors is expected to increase corresponding to their public acceptance and also due to stringent government regulations which are framed to reduce the global emissions. GBI Research' s report, “Clean Transportation Industry to 2020 - Strict Regulatory Framework to Push New Technologies in Vehicles and Fuels into the Market" provides key information and analysis on the market opportunities in the clean transportation sector. The report will provide the latest information on the clean transportation market size with a detailed assessment of the market forces and technologies influencing the clean transportation market.

Scope

•  Key market trend and issues in the clean transportation market.
•  Annualized market revenue of the clean transportation market from 2005 to 2010, forecast forward for 10 years to 2020.
•  Key regulations and policies.
•  Market force analysis which includes key drivers, restraints and challenges in the clean transportation market.
•  Regionwise (America, Europe, Asia pacific) market size of the clean transportation market
•  Segment wise (Hybrid Vehicles, Advanced batteries and Biofuel) market size of the clean transportation market.

Reasons to buy

•  Develop business strategies by understanding the trends and developments that are driving the clean transportation market.
•  Future market potential of the clean transportation - Identify, understand and capitalize.
•  Develop key strategic initiatives by understanding key focus areas of clean transportation market.
•  React to key trends and regulatory changes.
•  Identify market opportunities and develop plans for clean transportation.
•  Exploit growth opportunities in the clean transportation market.

Executive Summary

GBI Research' s new report, “Clean Transportation Industry to 2020 - Strict Regulatory Framework to Push New Technologies in Vehicles and Fuels into the Market " provides key information and analysis on the market opportunities in the clean transportation sector. The report provides the latest information on the biofuel market, hybrid electric car market and HEV batteries market with a detailed assessment of the various geographies and legislations pertaining to the clean transportation sector.

This report is built using data and information sourced from proprietary databases, primary and secondary research and in-house analysis by GBI Research' s team of industry experts.

Environmental Benefits of Biofuel to Render Investments from Stakeholders

The capability of biofuel to reduce emissions and maintain a sustainable environment is expected to increase its use in the global transportation sector. This is also complemented by the global imperative to reduce green house gases which makes biofuel an executable and attractive option. Ethanol, when used in place of gasoline, results in net emission reductions of 75% and net emission by 90% compared to diesel. The International Energy Agency (IEA), anticipates that to reduce the global atmospheric carbon dioxide concentration to 450 parts per million by 2050, 26% of total fuel use should be replaced by biofuel.
The benefits of biofuel also appeal to major oil producers and automakers. BP, which is one of the major oil producers, is also lured by the advantages of biofuel. BP has developed interest in the biofuel market and last year the company invested $98m purchasing biofuel startup Verenium' s cellulosic ethanol business. BP is also involved in building the UK’s largest bioethanol plant which is part of a $400m joint venture with British Sugar and DuPont. BP recently announced that it will acquire majority control of the Brazilian ethanol and sugar producer Companhia Nacional de Açúcar e Álcool (CNAA). When CNAA’s assets are fully developed, it is expected to increase BP’s overall Brazilian production capacity to around 1.4 billion liters of ethanol equivalent per year. BP will pay $680m and acquire 83% of CNAA. BP will also use part of this amount to refinance all the long term debts of CNAA. The other companies in the line dedicated for the production of sustainable biofuel is oil major Royal Dutch Shell. Royal Dutch Shell had a joint venture with Cosan for producing 2.2 billion liters of ethanol per year and the capacity is expected to increase by 20% by 2016. The joint venture is named as Raízen and is a $12 billion project. GBI Research believes that these initiatives from the energy producers will drive other players in the market to include biofuel in their product portfolio. The figure below shows the benefits of biofuel in two different cases. Case 1 refers to a comparative scenario between gasoline and ethanol. Ethanol will have a 75% reduction in net emissions compared to the use of gasoline. Case 2 refers to a comparative scenario between diesel and ethanol. Ethanol will have a 90% reduction in net emissions compared to the use of diesel. The figure also shows the beneficial outcomes of the use of biofuel.

Global Transportation Biofuel Market, Benefits, 2010

Source: GBI Research

Long Term Government Intervention is Expected to Spur the Use of Biofuel

Long term government intervention is expected to spur the use of biofuel across the globe. A variety of policy tools have been introduced by the government, which reduce the risk and uncertainty for prospective investors. Government involvement also ensures reliability in response to farmers’ concerns about energy input prices and output biofuel prices. The countries rely on subsidies, tax credits and preferential taxes to ensure that producers can be confident of surmounting the high cost of biofuel production. Trade policy instruments, such as import restrictions, are used to promote the emerging biofuel industry. The table below shows the biofuel mandates in the APAC region.

Biofuel Mandates and Policies, APAC, 2009

Source: GBI Research

Automotive Sector is on the Brink of Experiencing a Major Transition to Hybrid Technology due to Mounting Environmental Concerns and the need to Reduce the Dependence on Foreign Oil

The automotive sector is on the brink of experiencing a major transition to hybrid technology, which will substantially increase energy efficiency and reduce the oil demand of the transportation sector. A confluence of factors highlight the large market potential for hybrid electric cars: the risk of an uncontrollable rise in oil-prices in the near or long term and increasing climate concerns. Hybrid electric technology offers significant opportunities to address each of these issues.

About two-third of the world’s oil reserves are controlled by the Organization of the Petroleum Exporting Countries (OPEC) member countries and most of the reserves are in the Middle-East. The world’s oil demand is reliant on social or politically unstable regions for its oil supply: the Middle East, Venezuela, and Africa. Therefore, the supply is vulnerable to disruption. Oil has a significant influence on international trade, economics and politics. Relying on foreign oil could have serious implications for a country’s security and economic growth. Therefore, the governments in oil importing countries have adopted a wide range of policies to reduce oil dependency and attain energy security. This includes massive modernization of the road transport fleets. Policy analysts have zeroed in on the importance of the hybridization of vehicles.

The US imports around 57% of its oil and it fears that this dependence will increase as it uses up its domestic resources. Oil price shocks and price manipulation by OPEC have cost the US economy dearly — about $1.9 trillion from 2004 to 2008 — and each major shock was followed by a recession. In 1989, the transportation sector petroleum consumption surpassed US petroleum production for the first time, creating a gap that must be met with imports of petroleum. By the year 2030, transportation petroleum consumption is expected to grow to 18 million barrels per day; by that time, the gap between US production and transportation consumption will be 7.5 million barrels per day.

Global climate change is the greatest environmental threat facing the world. World energy demand grew at a staggering rate of more than 100% during the period 1970-2008, reaching over 12,000 Mtoe (million tons of oil equivalent). This increase in energy demand resulted in a dramatic increase in carbon dioxide (CO2) emissions triggering global environmental change. Development (OECD) member states to cut their CO2 emissions by an average of 5.2% by 2012. Massive adoptions of fuel efficient and low-emission vehicles will help decrease GHGs emissions helping high-carbon economies to attain these targets. The increased use of ‘green’ technology in the automotive sector could play a significant role in reducing GHGs and preventing further damage to the atmosphere. The growing number of environmentally-conscious customers is becoming a force in an attempt to limit greenhouse gas emissions.

The Global Hybrid Car Market is Expected to Reach $234.9 Billion in 2020

The hybrid electric car market, initially viewed as a loss making proposition and snubbed by automakers, has been gaining critical mass of late. Hybrid electric cars registered a significant growth in sales volume — primarily in the US and Japan since their introduction in 1999. Japanese car manufacturers had a monopoly on hybrid vehicles for almost a decade and now are reaping the benefits of early entry into this market. The share of hybrid electric cars in total car sales is expected to grow in established markets such as Japan and Europe.

Regulatory pushes to accelerate the mass adoption of hybrid technology, the need for energy security and reduction of foreign oil dependence, and the need to mitigate the depletion of oil resources are identified as the key demand determinants for the hybrid electric car market. Policy makers are pushing hybrid car sales through tax reductions and mandated purchases. Promotional schemes are aiding sales growth in many countries. Increased production of hybrid electric cars will lead to the decline in production costs and purchase prices. New models will be launched to cater to the growing demand and expanding market.

Global hybrid electric car market revenue grew at a CAGR of 25.4% during 2005-2009 and is expected to reach $234.9 billion in 2020 growing at a robust CAGR of 27.6 % during 2010-2020. In 2010, Asia Pacific was the largest market for hybrid car in terms of both volume sales and revenue generated.

The Global HEV Batteries Market is Expected to Reach $19.4 Billion In 2020: Lithium-Ion Batteries will Displace a Large Share of Nickel-Metal Hydride Batteries in the Hybrid Electric Market by 2020

The lithium-ion (Li-ion) battery market for hybrid electric vehicles is rapidly emerging with massive potential. The rapid growth in the number of electric vehicles will offer increased opportunities for Li-ion batteries in the future. Although Li-ion batteries for hybrid electric vehicles are still in an emerging phase, they are most likely to displace the Nickel-metal Hydride (Ni-MH) share in future. Ni-MH batteries currently dominate the hybrid electric car (HEV) battery market with a 97% revenue share. However, Ni-MH battery technology has reached its maturity and the pace of technological innovation in the market is much slower than for the Li-ion battery technology. Li-ion battery technology, on the other hand, offers better overall performance characteristics, high specific energy density, long cycle life, no memory effect and is compact in both physical dimensions and weight when compared to the Ni-MH battery.
The global HEV batteries market is expected to reach $6.4 billion in 2015 and $19.4 billion in 2020 at a CAGR 32.3% during the forecast period 2010-2020. Li-ion battery technology is expected to take a 60% share of the HEV battery market by 2020.

Table of Contents

1. Table of Contents

  • 1.1. List of Tables
  • 1.2. List of Figures

2. Global Clean Transportation Market, Definition

  • 2.1. Transportation Biofuel
    • 2.1.1. Introduction
    • 2.1.2. Classification of Biofuel
    • 2.1.3. Methodology
  • 2.2. Hybrid Electric Car
  • 2.3. Leading Advanced Battery Technologies for HEV
    • 2.3.1. Lithium-ion Batteries
    • 2.3.2. Nickel-metal Hydride Batteries
  • 2.4. GBI Research Report Guidance

3. Global Hybrid Electric Car Market, Analysis and Forecasts

  • 3.1. Global Hybrid Electric Car Market, Market Force Analysis
    • 3.1.1. Global Hybrid Electric Car Market, Key Drivers
    • 3.1.2. Regulatory Push: Purchase Incentives, Tax Incentives and Mandated Purchases
    • 3.1.3. Reduced Oil Dependence
    • 3.1.4. Volatile Oil Prices
    • 3.1.5. Environmental and Climate Change Concerns
  • 3.2. Global Hybrid Electric Car Market, Key Restraints for Growth
    • 3.2.1. Relatively High Prices
    • 3.2.2. Consumer Inertia
    • 3.2.3. Lack of Recharging Infrastructure and Related Challenges
  • 3.3. Global Hybrid Electric Car Market, Revenue
    • 3.3.1. Global Hybrid Electric Car Market, Revenue ($bn) on the Basis of Geography
  • 3.4. Global Hybrid Electric Car Market, Regulatory Framework
    • 3.4.1. Global Standards for Hybrid Electric Cars
    • 3.4.2. Global Standardization Bodies for Hybrid Electric Cars
    • 3.4.3. Global Programs for promotion of Hybrid Electric Car

4. Global Transportation Biofuel Market, Analysis and Forecasts

  • 4.1. Global Transportation Biofuel Market, Market Force Analysis
    • 4.1.1. Global Transportation Biofuel Market, Key Drivers
    • 4.1.2. Global Transportation Biofuel Market, Key Restraints
    • 4.1.3. Global Transportation Biofuel Market, Key Challenges
  • 4.2. Global Transportation Biofuel Market, Revenue
    • 4.2.1. Global Transportation Biofuel Market, Revenue ($bn) on the Basis of Biofuel Type
    • 4.2.2. Global Transportation Biofuel Market, Revenue ($bn) on the Basis of Geography
  • 4.3. Global Transportation Biofuel Market, Key Country Regulations and Policies
    • 4.3.1. The US, Transportation Biofuel, Key Regulations and Policies
    • 4.3.2. Brazil, Transportation Biofuel, Key Regulations and Policies
    • 4.3.3. Canada, Transportation Biofuel, Key Regulations and Policies
    • 4.3.4. Germany, Transportation Biofuel, Key Regulations and Policies
    • 4.3.5. France, Transportation Biofuel, Key Regulations and Policies
    • 4.3.6. Italy, Transportation Biofuel, Key Regulations and Policies
    • 4.3.7. China, Transportation Biofuel, Key Regulations and Policies
    • 4.3.8. India, Transportation Biofuel, Key Regulations and Policies
    • 4.3.9. Thailand, Transportation Biofuel, Key Regulations and Policies
    • 4.3.10. Malaysia, Transportation Biofuel, Key Regulations and Policies

5. Global HEV Batteries Market, Analysis and Forecasts

  • 5.1. Global HEV Batteries Market, Market Force Analysis
    • 5.1.1. Global HEV Batteries Market, Key Drivers
    • 5.1.2. Global HEV Batteries Market, Key Restraints for Development
  • 5.2. Global HEV Batteries Market, Revenue
    • 5.2.1. Global HEV Batteries Market, Revenue ($bn) on the Basis of Geography

6. Appendix

  • 6.1. About GBI Research
  • 6.2. Market Definition
    • 6.2.1. Geographies covered
  • 6.3. Abbreviations
  • 6.4. Methodology
    • 6.4.1. Coverage
    • 6.4.2. Secondary Research
    • 6.4.3. Primary Research
    • 6.4.4. Expert Panel Validation
  • 6.5. Contact Us
  • 6.6. Disclaimer

List of Tables

  • Table 1: Global Transportation Biofuel Market, Policy Assumptions
  • Table 2: Global Transportation Biofuel Market, Quantitative Assumptions
  • Table 3: Global Transportation Biofuel Market, Production Cost Assumptions
  • Table 4: Global Transportation Biofuel Market, Geographic Assumptions
  • Table 5: Hybrid Electric Car Market, Global, Key Drivers
  • Table 6: US, Gas Guzzler Tax Rates
  • Table 7: Global Oil Prices per Barrel (Nominal $), 1988-2008
  • Table 8: Hybrid Electric Car Market, Global, Key Drivers
  • Table 9: Power requirements for PHEV20s at 120 V / 15A , (kWh),2008
  • Table 10: Hybrid Electric Car Market, Global, Revenues ($bn), 2005-2020
  • Table 11: Hybrid Electric Car Market, North America, Revenues ($bn), 2005-2020
  • Table 12: Hybrid Electric Car Market, Europe, Revenues ($bn), 2005-2020
  • Table 13: Hybrid Electric Car Market, Asia Pacific, Revenues ($bn), 2005-2020
  • Table 14: Brief Overview of Terminology Standards
  • Table 15: Brief Overview of Battery Standards
  • Table 16: Brief Overview of Electric Vehicle Safety Standards
  • Table 17: Brief Overview of Hybrid Vehicle Performance Standards
  • Table 18: Brief Overview of Electric Vehicle Component Standards
  • Table 19: Basic Division of Work ISO/IEC
  • Table 20: Regional and National Standardizing Bodies
  • Table 21: Bonus-Malus System: Bonus as a Function of CO2 Emissions
  • Table 22: Bonus-Malus System: Penalty as a Function of CO2 Emissions
  • Table 23: Band Grading on the Basis of CO2 Emissions
  • Table 24: Biofuel Market, Americas, Key Drivers
  • Table 25: Biofuel Market, Americas , Mandates, 2009
  • Table 26: Subsidy Cost, Europe, $/metric ton of CO2 equivalent
  • Table 27: Biofuel Policies, APAC Countries, 2009
  • Table 28: Biofuel Market, Americas, Key Challenges
  • Table 29: Transportation Biofuel Market, Global, Revenues ($bn), 2005-2020
  • Table 30: Transportation Ethanol Market, Global, Revenues ($bn), 2005-2020
  • Table 31: Transportation Biodiesel Market, Global, Revenues ($bn), 2005-2020
  • Table 32: Transportation Biofuel Market, North America, Revenues ($bn), 2005-2020
  • Table 33: Transportation Biofuel Market, Central and South America, Revenues ($bn), 2005-2020
  • Table 34: Transportation Biofuel Market, Europe, Revenues ($bn), 2005-2020
  • Table 35: Transportation Biofuel Market, Global, Revenues ($bn), 2005-2020
  • Table 36: Key Biofuel Tax Credit, US, 2010
  • Table 37: Renewable Fuel Standards (Billion Gallons Per Year), US, 2010-2022
  • Table 38: Energy Independence and Security Act of 2007, Grants
  • Table 39: Biofuel Infrastructure, Description, 2009
  • Table 40: Farm Bill 2008 Title IX, Description, 2009
  • Table 41: Energy Consumption Sources, Brazil, 2009
  • Table 42: Sectoral Funds in Brazil, 2009
  • Table 43: Ethanol Blending Targets, France, 2009
  • Table 44: Ethanol TGAP Rate (%), France, 2009
  • Table 45: Ethanol Fuel Supply in China, Ethanol Promotion Pilot Program
  • Table 46: India Biofuel Incentive Scheme
  • Table 47: Malaysia, Key Energy Policies, 2009
  • Table 48: HEV Batteries Market, Global, Key Drivers
  • Table 49: HEV Batteries Market, Global, Key Drivers
  • Table 50: Contained Lithium Metal Production (in tons), 2008
  • Table 51: HEV Batteries Market, Global, Revenues ($bn), 2005-2020
  • Table 52: HEV Batteries Market, North America, Revenues ($bn), 2005-2020
  • Table 53: HEV Batteries Market, Europe, Revenues ($bn), 2005-2020
  • Table 54: HEV Batteries Market, Asia Pacific, Revenues ($bn), 2005-2020
  • Table 55: Abbreviations

List of Figures

  • Figure 1: Biofuel Market, Classification of Biofuel, 2010
  • Figure 2: Hybrid Electric Car Market, Global, Key Drivers
  • Figure 3: Imported Oil as a Percentage of Total Consumption in Developed Economies, 2010
  • Figure 4: Variation in Global Oil Prices, ($), 1988-2008
  • Figure 5: Hybrid Electric Car Market, Global, Key Restraints
  • Figure 6: Hybrid Electric Car Market, Global, Revenues ($bn), 2005-2020
  • Figure 7: Hybrid Electric Car Market, North America, Revenues ($bn), 2005-2020
  • Figure 8: Hybrid Electric Car Market, Europe, Revenues ($bn), 2005-2020
  • Figure 9: Hybrid Electric Car Market, Asia Pacific, Revenues ($bn), 2005-2020
  • Figure 10: Transportation Biofuel Market, Global, Key Drivers
  • Figure 11: Biofuel Mandates and Policies, APAC, 2009
  • Figure 12: Transportation Biofuel Market, Global, Key Restraints
  • Figure 13: Biofuel Market, Americas, Key Challenges
  • Figure 14: Transportation Biofuel Market, Global, Revenues ($bn), 2005-2020
  • Figure 15: Transportation Ethanol Market, Global, Revenues ($bn), 2005-2020
  • Figure 16: Transportation Biodiesel Market, Global, Revenues ($bn), 2005-2020
  • Figure 17: Global Transportation Biofuel Market, Geography Comparison, 2010
  • Figure 18: Transportation Biofuel Market, North America, Revenues ($bn), 2005-2020
  • Figure 19: Transportation Biofuel Market, Central and South America, Revenues ($bn), 2005-2020
  • Figure 20: Transportation Biofuel Market, Europe, Revenues ($bn), 2005-2020
  • Figure 21: Transportation Biofuel Market, Global, Revenues ($bn), 2005-2020
  • Figure 22: Renewable Fuel Standards (Billion Gallons Per Year), US, 2010-2022
  • Figure 23: Energy Consumption Sources, Brazil, 2009
  • Figure 24: Ethanol Blending Targets, France, 2009
  • Figure 25: Ethanol TGAP Rate (%), France, 2009
  • Figure 26: Ethanol Development Plan, Thailand, 2008-2022
  • Figure 27: Biodiesel Development Plan, Thailand, 2008-2022
  • Figure 28: Malaysian Biofuel Mandate, Key Description, 2010
  • Figure 29: HEV Batteries Market, Global, Key Drivers
  • Figure 30: HEV Batteries Market, Global, Key Restraints
  • Figure 31: HEV Batteries Market, Global, Revenues ($bn), 2005-2020
  • Figure 32: HEV Batteries Market, North America, Revenues ($bn), 2005-2020
  • Figure 33: HEV Batteries Market, Europe, Revenues ($bn), 2005-2020
  • Figure 34: HEV Batteries Market, Asia Pacific, Revenues ($bn), 2005-2020
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