Global Biomass- and Waste-to-Energy Market 2026 by Company, Regions, Type and Application, Forecast to 2032

According to our (Global Info Research) latest study, the global Biomass- and Waste-to-Energy market size was valued at US$ 100996 million in 2025 and is forecast to a readjusted size of US$ 153036 million by 2032 with a CAGR of 6.4% during review period.
Biomass- and Waste-to-Energy refers to equipment, technologies, and integrated plant solutions that convert biomass resources and waste streams into electricity and/or usable thermal energy. The market covers energy conversion based on agricultural and forestry residues, wood-processing residues, municipal solid waste, refuse-derived fuel, sewage sludge, organic waste, and other suitable renewable or recoverable feedstocks. Core conversion routes include grate combustion, fluidized bed combustion, gasification, anaerobic digestion with power generation, and pyrolysis, with steam turbine generation and combined heat and power representing major energy-output configurations. Direct combustion remains the principal commercial pathway for solid biomass power generation, while grate combustion is a highly established solution for mixed municipal waste and fluidized bed systems provide greater flexibility for heterogeneous biomass, residues, sludge, and refuse-derived fuels. The research scope focuses on municipal and public-utility plants, independent power producer projects, and industrial captive-energy installations serving waste treatment, renewable power generation, industrial steam and power supply, district heating, and agricultural, forestry, pulp and paper, and other resource-intensive industries.
Key Findings
Bioenergy and waste supplied 3% of global electricity in 2024
Asia held over two-fifths of 2025 bioenergy installed capacity
Grate combustion remains core technology for mixed municipal waste
Fluidized bed technology supports diverse biomass and waste fuels
Combined heat and power improves overall energy utilization efficiency
Market Trends
The Biomass- and Waste-to-Energy industry is moving from stand-alone power generation toward integrated energy and resource-recovery systems. Plant developers increasingly emphasize fuel flexibility, higher steam parameters, improved heat recovery, advanced flue-gas treatment, automated combustion control, and lower lifecycle operating costs. For biomass projects, the ability to process fuels with wide variations in moisture, calorific value, particle size, and ash characteristics is becoming increasingly important, strengthening the role of bubbling and circulating fluidized bed technologies in multi-fuel applications. For municipal waste projects, mature grate systems continue to benefit from their ability to process mixed waste without extensive pretreatment, while tighter environmental requirements are increasing the importance of combustion optimization, particulate and acid-gas removal, nitrogen-oxide control, and continuous emissions management. Another structural change is the increasing integration of electricity generation with process steam, district heating, recovered-material utilization, digital operation, and, in selected projects, carbon-management technologies. This shifts project value creation from simple fuel combustion toward higher energy efficiency, lower emissions, and lifecycle plant optimization.
Market Dynamics
Drivers
Growth in Biomass- and Waste-to-Energy is supported by the combined requirements of renewable energy development, reliable dispatchable generation, landfill diversion, waste-management infrastructure investment, and industrial decarbonization. Unlike variable wind and solar resources, biomass-based power can provide controllable generation and can simultaneously supply process heat or steam, making the technology particularly relevant to industrial facilities and district-energy systems. Waste-to-energy also addresses two infrastructure requirements within one project: controlled treatment of non-recyclable waste and recovery of usable electricity and heat. Waste-management policy generally positions energy recovery below waste prevention and recycling but above final disposal, supporting projects where residual waste volumes remain structurally significant.
Restraints
The principal restraints are high initial investment, complex project development, fuel-supply uncertainty, increasingly demanding environmental controls, and sensitivity to local electricity and heat economics. Biomass plants require stable long-term access to feedstock with acceptable moisture, calorific value, ash chemistry, transportation distance, and seasonal availability; deterioration in any of these variables can materially affect boiler efficiency and operating costs. Waste-to-energy projects additionally require sophisticated flue-gas treatment, ash handling, monitoring systems, and regulatory compliance. Emission standards covering particulates, nitrogen oxides, acid gases, heavy metals, mercury, dioxins, and furans increase technical complexity and capital requirements, particularly in highly regulated markets.
Opportunities
The strongest opportunities are developing around industrial energy substitution, multi-fuel conversion, modernization of existing fossil-fuel boilers, higher-efficiency combined heat and power, and integrated treatment of difficult waste streams. Pulp and paper, wood processing, food and agricultural processing, and other steam-intensive industries can combine locally available residues with process-energy demand, improving project utilization rates and reducing dependence on purchased fossil fuels. Recent projects also demonstrate increasing demand for systems capable of co-processing biomass and industrial waste while producing both electricity and process heat. In municipal markets, opportunities are increasingly linked to replacement or modernization of aging facilities, higher energy recovery, tighter emission compliance, and integration of material recovery and carbon-management functions rather than simple expansion of incineration capacity.
Challenges
Long-term challenges center on securing feedstock quality, maintaining public and regulatory acceptance, controlling project construction risk, and preserving the economic role of energy recovery as recycling and waste-reduction policies advance. Waste-to-energy operators must demonstrate that projects complement rather than displace prevention, reuse, and recycling, particularly in mature circular-economy markets. At the plant level, corrosion, fouling, ash characteristics, changing waste composition, and variable biomass quality require robust boiler design and continuous operational optimization. Commercial competitiveness also depends increasingly on lifecycle availability and service capability because unplanned outages can reduce both waste-processing capacity and energy revenue.
Industry Chain Analysis
The upstream chain of Biomass- and Waste-to-Energy begins with feedstock generation, collection, preprocessing, and logistics. Biomass supply originates mainly from forestry residues, agricultural residues, wood-processing by-products, dedicated biomass resources, and organic residues, while waste-to-energy feedstocks originate from municipal and industrial waste streams, refuse-derived fuels, sludge, and other recoverable waste fractions. Feedstock preparation can involve sorting, shredding, drying, size control, storage, blending, and contamination management. The economics of this upstream stage differ fundamentally between biomass and municipal waste: biomass often represents a purchased fuel with collection and transportation costs, whereas waste projects can have a treatment-service component alongside energy recovery. Consequently, project competitiveness depends not only on conversion efficiency but also on the stability and contractual structure of feedstock supply.
The midstream is centered on combustion or conversion equipment, boilers, fuel-feeding systems, steam systems, turbines and generators, anaerobic digestion equipment where applicable, flue-gas treatment, ash and residue handling, automation, engineering integration, construction, commissioning, and lifecycle services. Equipment value is increasingly concentrated in high-reliability combustion systems, corrosion-resistant heat-transfer surfaces, environmental-control systems, automation, and plant integration rather than in individual commodity components. Downstream value is created through electricity sales, industrial steam and heat supply, district heating, waste-treatment services, and industrial captive-energy consumption. Projects combining stable waste or biomass supply with continuous heat demand generally have more pathways to monetize recovered energy than electricity-only projects.
Segment Insights
By feedstock source, Biomass-to-Energy and Waste-to-Energy have different commercial structures despite sharing substantial boiler, steam-cycle, and emissions-control technologies. Biomass projects are closely linked to agricultural, forestry, wood-processing, and industrial residue supply, while waste-to-energy projects are more closely linked to municipal infrastructure and long-term waste-treatment requirements. Within the technology structure, grate combustion remains particularly suitable for mixed municipal solid waste because it tolerates wide variation in waste composition with limited preprocessing. Fluidized bed combustion has a stronger position where operators require multi-fuel capability, including biomass, sludge, residues, and refuse-derived fuel, because fluidized combustion can accommodate substantial variation in moisture, heating value, and ash characteristics.
Gasification and pyrolysis provide additional pathways for converting solid feedstocks but generally require greater control of feedstock characteristics and project integration, while anaerobic digestion is structurally better suited to biodegradable and high-organic-content waste streams. From an energy-output perspective, combined heat and power offers an important efficiency advantage in locations with stable industrial or district-heating demand, whereas electricity-only plants remain relevant where heat offtake infrastructure is unavailable. This creates substantial differences in project economics even among facilities using similar conversion technologies.
Downstream Market Opportunities
Downstream opportunities are shifting toward applications where waste disposal requirements and continuous energy demand overlap. Municipal solid waste treatment remains a core application because energy recovery can reduce landfill dependence while providing electricity and heat, whereas industrial applications are increasingly driven by the need to replace fossil-fired steam and captive power. Pulp and paper and wood-processing facilities are particularly compatible with biomass energy because residues can be generated on-site and process steam demand is continuous. Agricultural processing can similarly utilize crop residues and other biomass streams. District-heating markets create additional value for waste-to-energy and biomass plants because recovered heat can increase total energy utilization beyond electricity-only operation.
Regional Insights
Asia represents the largest installed base of bioenergy power capacity, accounting for more than two-fifths of global bioenergy capacity in 2025, while Europe represented close to three-tenths. Asia's market structure combines large municipal waste-to-energy deployment with agricultural and forestry biomass resources, creating demand across both grate-combustion and fluidized-bed systems. China is a particularly important installed-capacity center, while Japan has a mature municipal waste-treatment infrastructure and a strong domestic engineering supplier base. The region's longer-term opportunity is increasingly associated with higher-efficiency plants, industrial residue utilization, modernization, and stricter environmental controls rather than capacity addition alone.
Europe is a technologically mature Biomass- and Waste-to-Energy market characterized by strong integration with district heating, industrial heat supply, circular-economy policy, and stringent emissions requirements. Energy-recovery incineration represents approximately one-quarter of treated municipal waste in the European Union, illustrating the established role of the technology within the waste-management system. North America has a smaller bioenergy installed-capacity share and a more heterogeneous waste-to-energy development environment, with project economics and permitting varying significantly by jurisdiction. South America has a meaningful bioenergy base associated with agricultural and agro-industrial resources, supporting opportunities in industrial captive generation and combined heat and power.
Report Scope
This report is a detailed and comprehensive analysis for global Biomass- and Waste-to-Energy market. Both quantitative and qualitative analyses are presented by company, by region & country, by Type and by Application. As the market is constantly changing, this report explores the competition, supply and demand trends, as well as key factors that contribute to its changing demands across many markets. Company profiles and product examples of selected competitors, along with market share estimates of some of the selected leaders for the year 2025, are provided.
Key Features:
Global Biomass- and Waste-to-Energy market size and forecasts, in consumption value ($ Million), 2021-2032
Global Biomass- and Waste-to-Energy market size and forecasts by region and country, in consumption value ($ Million), 2021-2032
Global Biomass- and Waste-to-Energy market size and forecasts, by Type and by Application, in consumption value ($ Million), 2021-2032
Global Biomass- and Waste-to-Energy market shares of main players, in revenue ($ Million), 2021-2026
The Primary Objectives in This Report Are:
To determine the size of the total market opportunity of global and key countries
To assess the growth potential for Biomass- and Waste-to-Energy
To forecast future growth in each product and end-use market
To assess competitive factors affecting the marketplace
This report profiles key players in the global Biomass- and Waste-to-Energy market based on the following parameters - company overview, revenue, gross margin, product portfolio, geographical presence, and key developments. Key companies covered as a part of this study include Covanta, SUEZ, WIN Waste Innovations, Veolia, China Everbright, EEW, Attero, Paprec, AEB Amsterdam, Viridor, etc.
This report also provides key insights about market drivers, restraints, opportunities, new product launches or approvals.
Biomass- and Waste-to-Energy market is split by Type and by Application. For the period 2021-2032, the growth among segments provides accurate calculations and forecasts for Consumption Value by Type and by Application. This analysis can help you expand your business by targeting qualified niche markets.
Market segmentation
Market segment by Type
Biochemical Reactions
Thermal Technologies
Market segment by Feedstock Source
Biomass-to-Energy
Waste-to-Energy
Market segment by Energy Output
Electricity-Only Generation
Combined Heat and Power (CHP)
Market segment by Application
Waste Disposal
Energy
Other
Market segment by players, this report covers
Covanta
SUEZ
WIN Waste Innovations
Veolia
China Everbright
EEW
Attero
Paprec
AEB Amsterdam
Viridor
AVR
Tianjin Teda
Grandblue
CNTY
Shanghai Environment
Sanfeng Environment
Mitsubishi Heavy Industries
TAKUMA CO., LTD.
Market segment by regions, regional analysis covers
North America (United States, Canada and Mexico)
Europe (Germany, France, UK, Russia, Italy and Rest of Europe)
Asia-Pacific (China, Japan, South Korea, India, Southeast Asia and Rest of Asia-Pacific)
South America (Brazil, Rest of South America)
Middle East & Africa (Turkey, Saudi Arabia, UAE, Rest of Middle East & Africa)
Chapter Outline
Chapter 1, to describe Biomass- and Waste-to-Energy product scope, market overview, market estimation caveats and base year.
Chapter 2, to profile the top players of Biomass- and Waste-to-Energy, with revenue, gross margin, and global market share of Biomass- and Waste-to-Energy from 2021 to 2026.
Chapter 3, the Biomass- and Waste-to-Energy competitive situation, revenue, and global market share of top players are analyzed emphatically by landscape contrast.
Chapter 4 and 5, to segment the market size by Type and by Application, with consumption value and growth rate by Type, by Application, from 2021 to 2032.
Chapter 6, 7, 8, 9, and 10, to break the market size data at the country level, with revenue and market share for key countries in the world, from 2021 to 2026.and Biomass- and Waste-to-Energy market forecast, by regions, by Type and by Application, with consumption value, from 2027 to 2032.
Chapter 11, market dynamics, drivers, restraints, trends, Porters Five Forces analysis.
Chapter 12, the key raw materials and key suppliers, and industry chain of Biomass- and Waste-to-Energy.
Chapter 13, to describe Biomass- and Waste-to-Energy research findings and conclusion.