Global Waste to Energy Market (WTE)- Industry Analysis and Forecast (2019-2026) – By Technology and Region.

Market Scenario

Global Waste to Energy Market (WTE) size is valued at US$ 27.00 Bn in 2019 and expected to grow at a CAGR of XX % in the forecasting period. The report includes the analysis of impact of COVID-19 lock-down on the revenue of market leaders, followers, and disrupters. Since lock down was implemented differently in different regions and countries, impact of same is also different by regions and segments. The report has covered the current short term and long term impact on the market, same will help decision makers to prepare the outline for short term and long term strategies for companies by region. Rise in power consumption because of rapid industrialization accompanied by increasing focus to derive energy through renewable sources should drive waste to energy (WTE) market size growth. China, India, Brazil, and Mexico backed by founding Public-Private Partnerships (PPP) to fund the projects and follow strict timelines may improve waste management systems and adopt alternative renewable sources to generate energy from waste. Recycling industry growth across the U.S., Netherlands, Japan, and Germany should positively influence waste to energy market size growth. Recycling industry growth across the U.S., Netherlands, Japan, and Germany should positively influence waste to energy market size growth. Growing industrial and domestic wastes has prompted the government of North America and Europe to generate energy from waste. Moreover, the shift in trend towards replacing conventional energy generating from fossil fuels with renewable energy to ensure energy security and reduce carbon emissions are potential factors to drive industry growth. By technology segment, the rise into biological, thermal [incineration and pyrolysis & gasification]. Thermal waste to energy is the major segment where the waste to energy is highly demanded and thus, it is expected to hold major market share in the forecast period. Thermal based incineration process was the dominant technology implemented for waste to the recovery system. Aging equipment contributing to GHG emissions may get replaced with modernized equipment. Alternative thermal technologies such as pyrolysis, gasification and plasma arc gasification are expected to lower carbon emissions and witness an increase in demand. Region-wise, Waste to Energy market has been segmented into North America, Europe, Asia Pacific, Middle East & Africa, and Latin America. Europe is expected to be the largest market for waste to energy during the forecast period. Increased waste production along with regulatory compliance to minimize environmental impact are key factors driving Europe waste to energy market growth. The region has come up with various directives including Waste Framework and Landfill which may help in setting waste recycling targets through incineration techniques and landfills. The objective of the report is to present a comprehensive analysis of the Global Waste to Energy Market (WTE) including all the stakeholders of the industry. The past and current status of the industry with forecasted market size and trends are presented in the report with the analysis of complicated data in simple language. The report covers all the aspects of the industry with a dedicated study of key players that includes market leaders, followers and new entrants by Region. PORTER, SVOR, PESTEL analysis with the potential impact of micro-economic factors by Region on the market have been presented in the report. External as well as internal factors that are supposed to affect the business positively or negatively have been analyzed, which will give a clear futuristic view of the industry to the decision-makers. The report also helps in understanding Global Waste to Energy Market (WTE) dynamics, structure by analyzing the market segments and project the Global Waste to Energy Market (WTE) size. Clear representation of competitive analysis of key players by Type, price, financial position, Product portfolio, growth strategies, and regional presence in the Global Waste to Energy Market (WTE) make the report investor’s guide.

Scope of the Global Waste to Energy market

Global Waste to Energy market, by Power Source

• Stored Electricity • On Board Electricity Generator

Global Waste to Energy market, by Vehicle Type

• Two Wheeler • Passenger Car • Commercial Vehicle o Light Commercial Vehicle o Heavy Commercial Vehicle

Global Waste to Energy market, By Geography

• North America • Europe • Asia-Pacific • Middle East & Africa • Latin America

Key Players operating in the Global Waste to Energy market

• Hyundai • BMW • Daimler • General Motors • Nissan • Ford • Renault • Rimac • Tesla Motors • Kia • Mitsubishi • Peugeot • Volkswagen • Venturi • Chevrolet • Fiat • Bollinger • Mercedes Benz

Table of Contents

Global Waste to Energy Market

1. Preface 1.1. Report Scope and Market Segmentation 1.2. Research Highlights 1.3. Research Objectives 2. Assumptions and Research Methodology 2.1. Report Assumptions 2.2. Abbreviations 2.3. Research Methodology 2.3.1. Secondary Research 2.3.1.1. Secondary data 2.3.1.2. Secondary Sources 2.3.2. Primary Research 2.3.2.1. Data from Primary Sources 2.3.2.2. Breakdown of Primary Sources 3. Executive Summary: Global Waste to Energy Market, by Market Value (US$ Bn) 4. Market Overview 4.1. Introduction 4.2. Market Indicator 4.2.1. Drivers 4.2.2. Restraints 4.2.3. Opportunities 4.2.4. Challenges 4.3. Porter’s Analysis 4.4. Value Chain Analysis 4.5. Market Risk Analysis 4.6. SWOT Analysis 4.7. Industry Trends and Emerging Technologies 5. Supply Side and Demand Side Indicators 6. Global Waste to Energy Market Analysis and Forecast 6.1. Global Waste to Energy Market Size & Y-o-Y Growth Analysis 6.1.1. North America 6.1.2. Europe 6.1.3. Asia Pacific 6.1.4. Middle East & Africa 6.1.5. South America 7. Global Waste to Energy Market Analysis and Forecast, by Technology 7.1. Introduction and Definition 7.2. Key Findings 7.3. Global Waste to Energy Market Value Share Analysis, by Technology 7.4. Global Waste to Energy Market Size (US$ Bn) Forecast, by Technology 7.5. Global Waste to Energy Market Analysis, by Technology 7.6. Global Waste to Energy Market Attractiveness Analysis, by Technology 8. Global Waste to Energy Market Analysis, by Region 8.1. Global Waste to Energy Market Value Share Analysis, by Region 8.2. Global Waste to Energy Market Size (US$ Bn) Forecast, by Region 8.3. Global Waste to Energy Market Attractiveness Analysis, by Region 9. North America Waste to Energy Market Analysis 9.1. Key Findings 9.2. North America Waste to Energy Market Overview 9.3. North America Waste to Energy Market Value Share Analysis, by Technology 9.4. North America Waste to Energy Market Forecast, by Technology 9.4.1. Thermal 9.4.1.1. Incineration 9.4.1.2. Pyrolysis 9.4.1.3. Gasification 9.4.2. Biological 9.5. North America Waste to Energy Market Value Share Analysis, by Country 9.6. North America Waste to Energy Market Forecast, by Country 9.6.1. U.S. 9.6.2. Canada 9.7. North America Waste to Energy Market Analysis, by Country 9.8. U.S. Waste to Energy Market Forecast, by Technology 9.8.1. Thermal 9.8.1.1. Incineration 9.8.1.2. Pyrolysis 9.8.1.3. Gasification 9.8.2. Biological 9.9. Canada Waste to Energy Market Forecast, by Technology 9.9.1. Thermal 9.9.1.1. Incineration 9.9.1.2. Pyrolysis 9.9.1.3. Gasification 9.9.2. Biological 9.10. North America Waste to Energy Market Attractiveness Analysis 9.10.1. By Technology 9.11. PEST Analysis 9.12. Key Trends 9.13. Key Development 10. Europe Waste to Energy Market Analysis 10.1. Key Findings 10.2. Europe Waste to Energy Market Overview 10.3. Europe Waste to Energy Market Value Share Analysis, by Technology 10.4. Europe Waste to Energy Market Forecast, by Technology 10.4.1. Thermal 10.4.1.1. Incineration 10.4.1.2. Pyrolysis 10.4.1.3. Gasification 10.4.2. Biological 10.5. Europe Waste to Energy Market Value Share Analysis, by Country 10.6. Europe Waste to Energy Market Forecast, by Country 10.6.1. Germany 10.6.2. U.K. 10.6.3. France 10.6.4. Italy 10.6.5. Spain 10.6.6. Rest of Europe 10.7. Europe Waste to Energy Market Analysis, by Country 10.8. Germany Waste to Energy Market Forecast, by Technology 10.8.1. Thermal 10.8.1.1. Incineration 10.8.1.2. Pyrolysis 10.8.1.3. Gasification 10.8.2. Biological 10.9. U.K. Waste to Energy Market Forecast, by Technology 10.9.1. Thermal 10.9.1.1. Incineration 10.9.1.2. Pyrolysis 10.9.1.3. Gasification 10.9.2. Biological 10.10. France Waste to Energy Market Forecast, by Technology 10.10.1. Thermal 10.10.1.1. Incineration 10.10.1.2. Pyrolysis 10.10.1.3. Gasification 10.10.2. Biological 10.11. Italy Waste to Energy Market Forecast, by Technology 10.11.1. Thermal 10.11.1.1. Incineration 10.11.1.2. Pyrolysis 10.11.1.3. Gasification 10.11.2. Biological 10.12. Spain Waste to Energy Market Forecast, by Technology 10.12.1. Thermal 10.12.1.1. Incineration 10.12.1.2. Pyrolysis 10.12.1.3. Gasification 10.12.2. Biological 10.13. Rest of Europe Waste to Energy Market Forecast, by Technology 10.13.1. Thermal 10.13.1.1. Incineration 10.13.1.2. Pyrolysis 10.13.1.3. Gasification 10.13.2. Biological 10.14. Europe Waste to Energy Market Attractiveness Analysis 10.14.1. By Technology 10.15. PEST Analysis 10.16. Key Trends 10.17. Key Development 11. Asia Pacific Waste to Energy Market Analysis 11.1. Key Findings 11.2. Asia Pacific Waste to Energy Market Overview 11.3. Asia Pacific Waste to Energy Market Value Share Analysis, by Technology 11.4. Asia Pacific Waste to Energy Market Forecast, by Technology 11.4.1. Thermal 11.4.1.1. Incineration 11.4.1.2. Pyrolysis 11.4.1.3. Gasification 11.4.2. Biological 11.5. Asia Pacific Waste to Energy Market Value Share Analysis, by Country 11.6. Asia Pacific Waste to Energy Market Forecast, by Country 11.6.1. China 11.6.2. India 11.6.3. Japan 11.6.4. ASEAN 11.6.5. Rest of Asia Pacific 11.7. Asia Pacific Waste to Energy Market Analysis, by Country 11.8. China Waste to Energy Market Forecast, by Technology 11.8.1. Thermal 11.8.1.1. Incineration 11.8.1.2. Pyrolysis 11.8.1.3. Gasification 11.8.2. Biological 11.9. India Waste to Energy Market Forecast, by Technology 11.9.1. Thermal 11.9.1.1. Incineration 11.9.1.2. Pyrolysis 11.9.1.3. Gasification 11.9.2. Biological 11.10. Japan Waste to Energy Market Forecast, by Technology 11.10.1. Thermal 11.10.1.1. Incineration 11.10.1.2. Pyrolysis 11.10.1.3. Gasification 11.10.2. Biological 11.11. ASEAN Waste to Energy Market Forecast, by Technology 11.11.1. Thermal 11.11.1.1. Incineration 11.11.1.2. Pyrolysis 11.11.1.3. Gasification 11.11.2. Biological 11.12. Rest of Asia Pacific Waste to Energy Market Forecast, by Technology 11.12.1. Thermal 11.12.1.1. Incineration 11.12.1.2. Pyrolysis 11.12.1.3. Gasification 11.12.2. Biological 11.13. Asia Pacific Waste to Energy Market Attractiveness Analysis 11.13.1. By Technology 11.14. PEST Analysis 11.15. Key Trends 11.16. Key Development 12. Middle East & Africa Waste to Energy Market Analysis 12.1. Key Findings 12.2. Middle East & Africa Waste to Energy Market Overview 12.3. Middle East & Africa Waste to Energy Market Value Share Analysis, by Technology 12.4. Middle East & Africa Waste to Energy Market Forecast, by Technology 12.4.1. Thermal 12.4.1.1. Incineration 12.4.1.2. Pyrolysis 12.4.1.3. Gasification 12.4.2. Biological 12.5. Middle East & Africa Waste to Energy Market Value Share Analysis, by Country 12.6. Middle East & Africa Waste to Energy Market Forecast, by Country 12.6.1. GCC 12.6.2. South Africa 12.6.3. Rest of Middle East & Africa 12.7. Middle East & Africa Waste to Energy Market Analysis, by Country 12.8. GCC Waste to Energy Market Forecast, by Technology 12.8.1. Thermal 12.8.1.1. Incineration 12.8.1.2. Pyrolysis 12.8.1.3. Gasification 12.8.2. Biological 12.9. South Africa Waste to Energy Market Forecast, by Technology 12.9.1. Thermal 12.9.1.1. Incineration 12.9.1.2. Pyrolysis 12.9.1.3. Gasification 12.9.2. Biological 12.10. Rest of Middle East & Africa Waste to Energy Market Forecast, by Technology 12.10.1. Thermal 12.10.1.1. Incineration 12.10.1.2. Pyrolysis 12.10.1.3. Gasification 12.10.2. Biological 12.11. Middle East & Africa Waste to Energy Market Attractiveness Analysis 12.11.1. By Technology 12.12. PEST Analysis 12.13. Key Trends 12.14. Key Development 13. South America Waste to Energy Market Analysis 13.1. Key Findings 13.2. South America Waste to Energy Market Overview 13.3. South America Waste to Energy Market Value Share Analysis, by Technology 13.4. South America Waste to Energy Market Forecast, by Technology 13.4.1. Thermal 13.4.1.1. Incineration 13.4.1.2. Pyrolysis 13.4.1.3. Gasification 13.4.2. Biological 13.5. South America Waste to Energy Market Value Share Analysis, by Country 13.6. South America Waste to Energy Market Forecast, by Country 13.6.1. Brazil 13.6.2. Mexico 13.6.3. Rest of South America 13.7. South America Waste to Energy Market Analysis, by Country 13.8. Brazil Waste to Energy Market Forecast, by Technology 13.8.1. Thermal 13.8.1.1. Incineration 13.8.1.2. Pyrolysis 13.8.1.3. Gasification 13.8.2. Biological 13.9. Mexico Waste to Energy Market Forecast, by Technology 13.9.1. Thermal 13.9.1.1. Incineration 13.9.1.2. Pyrolysis 13.9.1.3. Gasification 13.9.2. Biological 13.10. Rest of South America Waste to Energy Market Forecast, by Technology 13.10.1. Thermal 13.10.1.1. Incineration 13.10.1.2. Pyrolysis 13.10.1.3. Gasification 13.10.2. Biological 13.11. South America Waste to Energy Market Attractiveness Analysis 13.11.1. By Technology 13.12. PEST Analysis 13.13. Key Trends 13.14. Key Development 14. Company Profiles 14.1. Market Share Analysis, by Company 14.2. Competition Matrix 14.2.1. Competitive Benchmarking of key players by price, presence, market share, Applications and R&D investment 14.2.2. New Product Launches and Product Enhancements 14.2.3. Market Consolidation 14.2.3.1. M&A by Regions, Investment and Applications 14.2.3.2. M&A Key Players, Forward Integration and Backward Integration 14.3. Company Profiles: Key Players 14.3.1. Hyundai 14.3.1.1. Company Overview 14.3.1.2. Financial Overview 14.3.1.3. Product Portfolio 14.3.1.4. Business Strategy 14.3.1.5. Recent Developments 14.3.1.6. Company Footprint 14.3.2. BMW 14.3.3. Daimler 14.3.4. General Motors 14.3.5. Nissan 14.3.6. Ford 14.3.7. Renault 14.3.8. Rimac 14.3.9. Tesla Motors 14.3.10. Kia 14.3.11. Mitsubishi 14.3.12. Peugeot 14.3.13. Volkswagen 14.3.14. Venturi 14.3.15. Chevrolet 14.3.16. Fiat 14.3.17. Bollinger 14.3.18. Mercedes Benz 15. Primary Key Insights

About This Report

Report ID 13394
Category Energy & Power
Published Date
No of Pages 186
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