01 Waste and Agricultural Residues Becoming Core Biomass Feedstocks Large volumes of agricultural and industrial residues create an opportunity to generate energy from materials that would otherwise require disposal or low-value handling. Biomass power systems are therefore placing more emphasis on bagasse, crop residues, and other organic wastes; India’s Ministry of New and Renewable Energy reported 9,821.32 MW of cumulative bagasse cogeneration capacity and 1,047.85 MW of non-bagasse biomass cogeneration capacity as of August 31, 2026.The result is a more residue-oriented Biomass Power Market where local waste streams support electricity generation, industrial cogeneration, and better utilization of domestic biomass resources.
02 Biomass Power Becoming More Important for Grid Flexibility Power systems with larger shares of variable wind and solar require controllable generation sources that can respond when renewable output changes. Dispatchable biomass plants can complement these variable resources, and the IEA projects the combined share of wind and solar PV in global electricity generation to rise from 17% in 2026 to 27% by 2030, increasing the importance of system flexibility. IEA The result is a broader role for biomass power as a controllable renewable resource that can support grid balancing while electricity systems integrate larger volumes of weather-dependent generation.
01 Expansion of Biomass Pellet and Briquette Supply Chains and Growth of Captive Power Demand in Agro-Processing Industries Drive Market Wider biomass pellet and briquette production strengthens the supply of standardized fuels for biomass power plants, industrial boilers, and co-firing applications. India’s installed biomass power and cogeneration capacity reached about 10.74 GW as of March 31, 2025, including 9.82 GW of bagasse and IPP capacity and 0.92 GW of non-bagasse capacity. This supply-side transition improves fuel availability and supports more reliable operation of biomass-based generation assets.Higher captive power requirements across sugar, rice, paper, and other agro-processing industries increase demand for biomass cogeneration systems that provide electricity and process heat from a single installation. India’s National Bioenergy Programme supports non-bagasse cogeneration projects with financial assistance of ₹40 lakh per MW, subject to a maximum of ₹5 crore per project, lowering the capital burden for industrial users. Ministry of New and Renewable Energy The country had about 9.82 GW of biomass power and cogeneration capacity from bagasse and IPP projects as of March 2025, showing the established role of biomass in industrial and agro-processing energy supply. This demand-side transition supports additional captive biomass power installations where processors require dependable electricity and thermal energy for continuous operations.
01 Seasonal and Variable Feedstock Availability and High Feedstock Collection and Transportation Costs Restrain Market Expansion Biomass power plants require a continuous fuel supply, while agricultural and forestry residues can vary with harvest timing, weather, moisture, and regional production conditions. The U.S. Department of Energy notes that seasonally available biomass must be stored and preserved while controlling moisture, degradation, and material losses, adding complexity to year-round supply management. These fluctuations can reduce plant utilization and raise inventory costs, limiting stable Biomass Power Market expansion. Biomass is often dispersed across farms and forests, while its low density and non-uniform form increase handling and transportation requirements before it reaches a power facility. A 2026 USDA report identifies biomass transport as complicated and costly, particularly when woody resources must be collected from remote forests and moved over long distances; USDA also provided more than USD 3.3 million in 2026 to nearly 1,200 geographically disadvantaged agricultural producers to offset transportation expenses, illustrating the broader cost burden of moving agricultural materials. Higher logistics expenses increase delivered fuel costs and can weaken the economics of biomass power projects located far from feedstock sources.
01 Development of Small-Scale Modular Biomass Power Plants for Rural and Remote Areas and Expansion of Biomass Power with Carbon Capture and Storage (BECCS) Offers Growth Opportunities Rural utilities, distributed-energy developers, local governments, and modular power-equipment providers represent the main commercial groups for this opportunity. The World Bank reported in June 2026 that 655 million people still lacked electricity globally, including more than 560 million in Sub-Saharan Africa, highlighting the scale of underserved locations where decentralized systems can be relevant. Modular biomass plants can create revenue through turnkey installations, mini-grid power contracts, equipment leasing, operations support, and long-term maintenance services. Biomass power producers, carbon-capture technology companies, storage operators, utilities, and carbon-removal project developers form the key player base for this opportunity. The UK’s current Power BECCS framework separates projects above 100 MW for the Power BECCS business model and projects below 100 MW for the Greenhouse Gas Removal business model, creating defined commercial routes for projects of different scales. BECCS can open revenue through low-carbon electricity sales, carbon-removal contracts, capture-system integration, CO₂ transport and storage services, and long-term project partnerships.
01 Ash Handling and Residue Management Complexity and Maintaining Stable Plant Performance Across Variable Fuel Properties Hinders Growth Biomass power plants must continuously manage bottom ash, fly ash, and combustion residues, with volumes and composition varying according to fuel type and operating conditions. DOE notes that biomass with high alkali or chlorine content can contribute to ash deposition, slagging, fouling, and corrosion in boilers and heat-exchange surfaces. These operational issues increase cleaning, maintenance, and residue-management requirements, reducing plant availability and making reliable scale-up more difficult.Biomass fuels can differ substantially in moisture, density, particle size, heating value, and chemical composition, making consistent combustion and power output difficult even when adequate feedstock volumes are available. The U.S. DOE specifically identifies moisture, density, durability, grindability, and heating value as critical characteristics that must be controlled for reliable biomass conversion. Variability in these properties increases preprocessing and process-control requirements, complicating efficient operation of large biomass power facilities.
June 2026 Ørsted signed a long-term agreement with Microsoft to deploy BECCS (Bioenergy with Carbon Capture and Storage) credits generated from the Asnæs and Avedøre power stations in Denmark. The partnership supports the commercialization of biomass power integrated with carbon capture technologies and advances negative-emissions energy solutions.
May 2026 Drax Group signed a strategic agreement with Pathway Energy to supply sustainable biomass feedstock for sustainable aviation fuel (SAF) production in the United States. The partnership expands the utilization of biomass resources while strengthening Drax's integrated biomass energy value chain.
March 2026 ANDRITZ received a contract from Sumitomo SHI FW to supply advanced biomass processing technologies for a new renewable energy facility, supporting higher fuel efficiency and lower emissions in biomass-fired power generation.