Capacity (tpa) & CAPEX ($m) Forecasts for Incineration of Municipal Solid Waste (MSW) & Refuse-Derived Fuel (RDF) in Electricity Generation, District Heating & Combined Heat and Power (CHP), Energy from Waste (EfW) Plants; Featuring Technologies: Mass Burn, Gasification, Pyrolysis, Fluidised Bed, Advanced Thermal Treatment (ATT), & Advanced Conversion Technology (ACT)
Visiongain assesses that The global waste-to-energy market was valued at $16.4 billion in 2019, and it is expected to reach $22.6 billion by 2030, growing at a compound annual growth rate (CAGR) of 3.3% from 2020 to 2030. Read on to discover the potential business opportunities available.
The emergence of Asia-Pacific as a major hub for WTE development is expected to provide growth opportunities to market participants over the forecast period. The emerging economies of China and India have been developing their renewable resources to reduce carbon footprints to meet the carbon footprints seen in developed economies and have been involved in extensive R&D to develop low-cost WTE technologies. These efforts are expected to create immense opportunities for market participants.
Thermal technologies have emerged as the leading technology used for generating energy from waste. The segment accounted for 87% of total market revenue in 2019. Thermal technologies are further segregated into conventional thermal technologies and alternative thermal technologies. Thermal is the oldest and the most trusted technology used for generating energy from waste. However, the high cost associated with its installation, and its emission of harmful gases during incineration, are expected to hinder the market growth over the forecast period.
Biological treatment is expected to be the fastest growing technology at an estimated CAGR of 5.4% from 2020 to 2025. Biological treatments include the treatment of waste with microorganisms to generate energy. These methods are considered more environmental friendly than thermal technologies and are expected to increase their market penetration over the forecast period.
WTE is gaining status as an important component of integrated waste management strategies in which it plays the role of an alternative strategy to relieve the pressure on landfills. The added benefit of WTE over other waste management strategies is the potential for the extraction of energy. A major portion of this energy is used by the plant itself for its internal energy requirements; the remainder is supplied to the community.
Despite the potential that the sector offers both in terms of waste management and in terms of providing a cheap alternate energy source, many of the WTE technologies have been met with public opposition. For instance, thermal WTE projects have received bad publicity with concerns from environmental groups and local communities regarding several factors, including their impact on the environment and human health. Even though it is claimed that modern WTE combustion plants are safe and odor-free, public concern remains a barrier and continues to slow the implementation of new projects. However, several emerging technologies are much more efficient and promising and face less opposition. With growing waste volumes, the adoption of efficient and environmentally friendly waste management methods is becoming a priority for countries around the globe.
With reference to this report, waste-to-energy (WtE) facilities are considered as plants using municipal solid waste (MSW) as a primary fuel source for energy production. This includes direct combustion and advanced thermal, but not biological processes. The report covers the CAPEX spending of new and upgraded WtE plants globally. The report also forecasts MSW-processing capacity for global, regional and national markets from 2020-2030.
The report will answer questions such as: • What are the prospects for the overall waste-to-energy industry? • Where are the major investments occurring? • Who are the key players in the waste-to-energy industry? • What are the market dynamics underpinning the sector? • How consolidated is the sector amongst the large industry players?
Reasons Why You Must Order and Read This Report Today:
1) The report provides detailed profiles and analysis of 20 leading companies operating within the waste-to-energy market: – Covanta – China Everbright – Sembcorp Industries – Suez Environment – Keppel Seghers Belgium – Veolia Environmental – Wheelabrator – Clean Association of Tokyo 23 – MVV Energie AG – China Metallurgical Group (MCC) – Hunan Junxin Environmental Protection – GCL-Poly – EDF – Amec Foster Wheeler (formerly Foster Wheeler) – Andritz Energy & Environment – Arrow Ecology – Babcock & Wilcox Volund A/S – Biogas Nord AG – Biogen Greenfinch – BTA International Gmbh
2) The study reveals where companies are investing in waste-to-energy and how much waste-processing capacity from WtE is expected. Analysis of three regional markets, national markets plus analysis of many more countries: – UK – Poland – Ireland – Denmark – Finland – Italy – Sweden – Czech Republic – Rest of Europe – India – China – Japan – Rest of AsiaPac – USA – Canada – LATAM
For electricity generation, the CAPEX is estimated to be $14,681 mn in 2020, increasing to $17,996 mn by 2025 at a CAGR of 5.2%. The market further grows but at a lower rate, reaching CAPEX of $18,941 mn by 2030, at a CAGR of 1.1% from 2025 to 2030. Overall the submarket would grow with a CAGR of 3.1% over the forecasted period.
Producing electricity is only one reason to burn MSW. Burning waste also reduces the amount of material that would probably be buried in landfills. Burning MSW reduces the volume of waste by about 87%. Generation of electricity through waste remains the major application of the global WtE market and is expected to grow more over the forecast period.
3) Discover details of hundreds of waste-to-energy projects revealing the following information in most cases: – Company – Project title – TPA capacity – MW capacity – $m investment – Completion year – Status
4) Learn about the following business-critical issues: – Legislation and landfill targets – Costs – Energy security – Pollution and public opposition – New technologies such as mass burn and advanced conversion
This independent 325-page report guarantees you will remain better informed than your competition. With 253 tables and figures examining the waste-to-energy market space, the report gives you a visual, one-stop breakdown of your market including capital expenditure forecasts from 2020-2030, as well as analysis PLUS municipal waste processing capacity forecasts from 2020-2030, keeping your knowledge that one step ahead helping you to succeed.
This report is essential reading for you or anyone in the energy or waste sectors with interest in waste-to-energy. Purchasing this report today will help you to recognise those important market opportunities and understand the possibilities there. I look forward to receiving your order.
Buy our report today Global Waste-to-Energy (WtE) Market Forecast: Capacity (tpa) & CAPEX ($m) Forecasts for Incineration of Municipal Solid Waste (MSW) & Refuse-Derived Fuel (RDF) in Electricity Generation, District Heating & Combined Heat and Power (CHP), Energy from Waste (EfW) Plants; Featuring Technologies: Mass Burn, Gasification, Pyrolysis, Fluidised Bed, Advanced Thermal Treatment (ATT), & Advanced Conversion Technology (ACT). Avoid missing out by staying informed – order our report now.
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1. Report Overview
1.1 Waste-to-Energy Market Overview
1.2 Market Structure Overview and Market Definition
1.3 Why You Should Read This Report
1.4 How This Report Delivers
1.5 Key Questions Answered by This Analytical Report Include:
1.6 Who is This Report For?
1.7 Methodology
1.7.1 Primary Research
1.7.2 Secondary Research
1.7.3 Market Evaluation & Forecasting Methodology
1.8 Frequently Asked Questions (FAQ)
1.9 Associated Visiongain Reports
1.10 About Visiongain
2. Introduction to the Waste-to-Energy Market
2.1 Waste-To-Energy: The Concept
2.2 Global Waste-to-Energy Market Structure
2.3 Market Definition
2.4 Waste to Energy-Value Chain Analysis
2.5 Market Dynamics
2.5.1 Market Driver
2.5.2 Challenges Of Waste-To-Energy
2.5.3 Opportunities
3. Global Overview of Waste to Energy Market
3.1 Regional Overview of Waste to Energy Market 2020–2030
3.2 Global Waste to Energy Market Drivers and Restraints
4. Global Waste to Energy Submarkets Forecast 2020–2030
4.1 Global Waste to Energy Submarkets Forecasts, by Type 2020–2030
4.1.1 Global Thermal Waste to Energy Forecasts 2020–2030
4.1.1.1 Global Thermal Waste to Energy Driver & Restraints
4.1.2 Global Biological Waste to Energy Forecasts 2020–2030
4.1.2.1 Global Biological WtE Driver & Restraints
4.1.3 Global Waste to Energy Market- Comparison Matrix (Type VS Region)
4.2 Global Waste to Energy Submarkets Forecasts, by Application 2020–2030
4.2.1 Global Electricity Generation Waste to Energy Forecasts 2020–2030
4.2.1.1 Global Electricity Generation Waste to Energy Driver & Restraints
4.2.2 Global Steam Exports Waste to Energy Forecasts 2020–2030
4.2.2.1 Global Steam Exports WtE Driver & Restraints
4.2.3 Global CHP Waste to Energy Forecasts 2020–2030
4.2.3.1 Global CHP WtE Driver & Restraints
4.2.4 Global Waste to Energy Market- Comparison Matrix (Application VS Region)
5. Leading Nations in Waste to Energy Market 2020–2030
5.1 The U.K. Waste-to-Energy Market Forecast 2020–2030
5.1.1 Current Status of Waste-to-Energy in the U.K.
5.1.2 U.K. Waste-to-Energy Market Analysis
5.1.3 Major UK Waste-to-Energy Projects
5.1.4 Drivers and Restraints in the U.K. Waste-to-Energy Market
5.2 The Polish Waste-to-Energy Market Forecast 2020–2030
5.2.1 Current Status of Waste-to-Energy in Poland
5.2.2 Polish Waste-to-Energy Market Analysis
5.2.3 Major Polish Waste-to-Energy Projects
5.2.4 Drivers and Restraints in the Polish Waste-to-Energy Market
5.3 The Irish Waste-to-Energy Market Forecast 2020–2030
5.3.1 Current Status of Waste-to-Energy in Ireland
5.3.2 Irish Waste-to-Energy Market Analysis
5.3.3 Major Irish Waste-to-Energy Projects
5.4 The Danish Waste-to-Energy Market Forecast 2020–2030
5.4.1 Current Status of Waste-to-Energy in Denmark
5.4.2 Danish Waste-to-Energy Market Analysis
5.4.3 Major Danish Waste-to-Energy Projects
5.4.4 Drivers and Restraints in the Danish Waste-to-Energy Market
5.5 The Finnish Waste-to-Energy Market Forecast 2020–2030
5.5.1 Current Status of Waste-to-Energy in Finland
5.5.2 Finnish Waste-to-Energy Market Analysis
5.5.3 Major Finnish Waste-to-Energy Projects
5.5.4 Drivers and Restraints in the Finnish Waste-to-Energy Market
5.6 The Italian Waste-to-Energy Market Forecast 2020–2030
5.6.1 Current Status of Waste-to-Energy in Italy
5.6.2 Italian Waste-to-Energy Market Analysis
5.6.3 Major Italian Waste-to-Energy Projects
5.6.4 Drivers and Restraints in the Italian Waste-to-Energy Market
5.7 The Swedish Waste-to-Energy Market Forecast 2020–2030
5.7.1 Current Status of Waste-to-Energy in Sweden
5.7.2 Swedish Waste-to-Energy Market Analysis
5.7.3 Major Swedish Waste-to-Energy Projects
5.7.4 Drivers and Restraints in the Swedish Waste-to-Energy Market
5.8 The Czech Republic Waste-to-Energy Market Forecast 2020–2030
5.8.1 Current Status of Waste-to-Energy in Czech Republic Market
Table 5.58 Key Canadian WtE Statistics (Population, Annual MSW Production, Incineration Rate, Landfill Rate, Recycling/Compost Rate, WtE Facilities, WtE Capacity, New Plants Under Planning / Construction)
Table 5.59 Major Canadian Waste-to-Energy Projects (Company, Project Title, TPA Capacity, $m Investment, Completion Year)
Table 5.60 Drivers and Restraints in the Canadian Waste-to-Energy Market
Table 5.61 Latin America Waste-to-Energy Market Forecast 2020-2030 ($ mn, Mtpa, AGR %, CAGR %, Cumulative)
Table 5.62 Major WtE Projects in Latin America (Company, Project Title, Country, TPA Capacity, Completion Year, Status)
Table 5.63 The Middle East & Africa Waste-to-Energy Market Forecast 2020-2030 ($ mn, Mtpa, AGR %, CAGR %, Cumulative)
Table 5.64 Major WtE Projects in the Middle East & Africa (Company, Project Title, Country, TPA Capacity, Completion Year, Status)
Table 6.1 PEST Analysis, Waste-to-Energy Market
Table 7.1 Covanta Energy Corporation Profile 2019 (Market Entry, Public/Private, Headquarters, No. of Employees, Total Company Revenue $bn, Change in Revenue, Geography, Key Market, Listed on, Products/Services)
Table 7.2 Covanta Energy Corporation Total Company Revenue 2014-2018 ($bn, AGR %)
Table 7.3 Covanta Energy Waste to Energy Facilities
Table 7.4 China Everbright International Limited Profile 2019 (Market Entry, Public/Private, Headquarters, No. of Employees, Total Company Revenue $bn, Change in Revenue, Geography, Key Market, Listed on, Products/Services)
Table 7.5 China Everbright's Product Portfolio
Table 7.6 China Everbright International Limited Total Company Revenue 2014-2018 ($bn, AGR %)
Table 7.9 Sembcorp Industries 2017 (Market Entry, Public/Private, Headquarters, No. of Employees, Total Company Revenue $bn, Change in Revenue, Geography, Key Market, Listed on, Products/Services)
Table 7.10 Suez Environment (SITA) 2019 (Market Entry, Public/Private, Headquarters, No. of Employees, Total Company Revenue $bn, Change in Revenue, Geography, Key Market, Listed on, Products/Services)
Table 7.11 Suez Environment Total Company Revenue 2014-2018 ($bn, AGR %)
Visiongain energy reports are compiled using a broad and rich mixture of both primary and secondary information to produce an overall industry outlook. In order to provide our clients with the best product possible product, we do not rely on any one single source of information. Visiongain analysts reach out to market-leading vendors and industry experts where possible but also review a wealth of financial data and product information from a vast range of sources. To find out more about our reports methodology, please email sara.peerun@visiongain.com
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