Biomass and Bioenergy

About us

The 20th Global Summit and Expo on Biomass and Bioenergy, scheduled for September 14–15, 2026, in Rome, Italy, stands as a premier international platform dedicated to advancing cutting-edge research, sustainable technologies, and industrial innovations in the field of renewable bioenergy. Guided by the theme “Sustainable Bioenergy Horizons: Transforming Biomass into a Carbon-Neutral Future,” the summit brings together global leaders, researchers, policymakers, engineers, environmental scientists, industry representatives, and technology developers who are shaping the next generation of clean energy solutions. This landmark event provides a dynamic environment for presenting breakthrough discoveries, discussing policy frameworks, exploring commercial opportunities, and addressing the global transition toward sustainable energy systems. With a strong focus on biomass conversion technologies, biofuels, biogas, waste-to-energy solutions, bioenergy systems integration, carbon reduction strategies, and circular bioeconomy models, the summit fosters cross-disciplinary collaboration and encourages knowledge exchange that accelerates innovation. The conference features keynote speeches, technical sessions, panel discussions, workshops, and an extensive industry expo showcasing the latest advancements in equipment, processes, and bioenergy applications. Participants gain valuable insights into emerging trends, market dynamics, sustainability challenges, investment opportunities, and the evolving regulatory landscape driving global bioenergy adoption.

Sessions

Biomass Conversion – Advanced Technologies

Advanced biomass conversion technologies are reshaping how renewable resources are transformed into fuels, chemicals, and power. Modern techniques such as hydrothermal liquefaction, torrefaction, catalytic upgrading, and advanced biochemical pathways enable higher efficiency and improved energy yields. These methods allow diverse biomass types agricultural residues, forestry waste, algae, and organic municipal waste to be converted into valuable products with reduced emissions. Innovations in pretreatment, enzymatic hydrolysis, and process intensification further enhance the quality and consistency of biomass-derived outputs. The integration of artificial intelligence and automation is helping optimize conversion conditions, reduce production costs, and improve sustainability metrics. Advanced conversion systems also support decentralized energy generation, making renewable energy accessible to rural and developing regions. The continuous evolution of reactors, catalysts, and process designs is enabling higher conversion efficiencies and more stable product streams. As global energy systems shift toward low-carbon solutions, cutting-edge biomass conversion stands out as a robust pathway to producing cleaner fuels, chemicals, and heat with long-term environmental and economic benefits.

Biofuels – Production & Innovations

Biofuel development is advancing rapidly with next-generation innovations aimed at achieving higher efficiency, reduced carbon intensity, and broader feedstock flexibility. Emerging pathways such as cellulosic ethanol, algal biodiesel, sustainable aviation fuels, and bio-based drop-in fuels are expanding the global bioenergy landscape. Technological improvements in enzymatic processes, fermentation techniques, and catalytic upgrading are enhancing fuel quality while reducing production costs. Research into engineered microorganisms and synthetic biology is enabling faster conversion of lignocellulosic biomass into high-value fuels. New reactor designs and integrated biorefinery concepts contribute to circular production systems that maximize resource utilization. The increasing demand for green transportation fuels is accelerating investment in scalable and robust biofuel technologies. Innovations in lifecycle optimization ensure that biofuels deliver strong carbon-reduction benefits compared with fossil fuels. As governments push for cleaner mobility solutions, advanced biofuels offer a pathway that aligns sustainability goals with energy security, making them a cornerstone of future low-carbon transportation strategies worldwide.

Biogas – Anaerobic Digestion Systems

Anaerobic digestion systems are becoming a central pillar in renewable energy production, offering an efficient method to convert organic waste into biogas and nutrient-rich digestate. Modern biogas plants use advanced microbial consortia, improved reactor designs, and optimized temperature and mixing conditions to achieve higher methane yields. Feedstocks such as agricultural residues, livestock manure, food waste, sewage sludge, and industrial effluents are being utilized to reduce landfill pressures while generating clean energy. Upgrading technologies like membrane separation, pressure swing adsorption, and water scrubbing enable biogas purification into biomethane, making it suitable for use in natural gas grids or as a transport fuel. Digital monitoring and automation enhance process stability, minimize downtime, and improve overall efficiency. Biogas systems also provide significant environmental benefits by mitigating methane emissions from waste, reducing reliance on fossil fuels, and supporting nutrient recycling through digestate application in agriculture. The combination of waste management and renewable energy production makes anaerobic digestion an increasingly important solution for sustainable development and circular economy initiatives.

Waste-to-Energy – Circular Solutions

Waste-to-energy technologies transform municipal and industrial waste streams into valuable energy resources through thermal, biological, and chemical conversion processes. Modern systems such as gasification, pyrolysis, plasma treatment, and high-efficiency incineration significantly improve energy recovery while adhering to strict environmental standards. These technologies help reduce landfill dependence, lower greenhouse gas emissions, and support circular resource utilization by recovering heat, electricity, fuels, and reusable materials. Integrated waste-to-energy facilities are evolving into multi-output plants capable of producing syngas, bio-oils, char, and renewable power. Innovations in air pollution control, heat recovery, and advanced sensors ensure high performance and safe operation. Many regions are adopting waste-to-energy as a critical component of sustainable waste management strategies, supporting urban resilience and energy diversification. As populations grow and waste volumes increase, these solutions provide an essential pathway for managing complex waste streams while contributing to clean energy targets. The shift toward circular economy models further expands the potential of waste-to-energy systems in achieving sustainable, resource-efficient futures.

Algal Bioenergy – High-Yield Systems

Algal bioenergy systems are gaining global attention due to algae’s rapid growth rates, high lipid content, and ability to thrive on non-arable land using wastewater or seawater. Microalgae and macroalgae are being harnessed to produce biodiesel, bioethanol, biogas, biohydrogen, and high-value co-products such as pigments, proteins, and bioplastics. Advanced cultivation systems—including photobioreactors, raceway ponds, and vertical panel reactors—enhance biomass productivity while minimizing environmental impact. Genetic engineering and synthetic biology techniques are improving strain robustness, lipid accumulation, and nutrient uptake efficiency. Downstream processing innovations streamline harvesting, dewatering, and extraction, significantly reducing operational costs. Integrated algal biorefineries are emerging as sustainable solutions that convert algae into multiple marketable products while capturing CO? emissions. Algal bioenergy is also valuable for its potential in wastewater treatment, nutrient recycling, and carbon mitigation. With rising global demand for clean fuels and sustainable biomaterials, algae-based energy systems represent a powerful next-generation platform for scalable, renewable, and carbon-neutral energy production.

Bioenergy Sustainability – Carbon Neutrality

Bioenergy sustainability focuses on maximizing environmental benefits while ensuring long-term carbon neutrality and ecological balance. Sustainable practices include responsible biomass sourcing, efficient land use, preservation of biodiversity, and minimizing water consumption. Lifecycle assessments are essential for evaluating greenhouse gas reductions and identifying opportunities for improvement across production chains. Advances in sustainable intensification, agroforestry systems, and regenerative agriculture support biomass production without compromising food security or natural ecosystems. Certification frameworks and international standards guide ethical sourcing and transparent supply chain management. Technological innovations also contribute to sustainability by optimizing conversion efficiency, reducing emissions, and improving waste utilization. Bioenergy solutions that integrate carbon capture, biochar production, and soil carbon enhancement significantly strengthen climate mitigation outcomes. As global climate goals intensify, sustainable bioenergy plays a critical role in transitioning to low-carbon energy systems. By balancing environmental stewardship with economic viability, sustainable bioenergy supports long-term climate resilience, community development, and global efforts toward achieving a carbon-neutral future.

Thermochemical Processes – Pyrolysis & Gasification

Thermochemical processes such as pyrolysis and gasification convert biomass into energy-rich products including syngas, bio-oils, and solid biochar. Pyrolysis operates under oxygen-limited conditions, breaking down complex biomass polymers into liquid and gaseous fractions suitable for fuels and chemicals. Fast, slow, and catalytic pyrolysis methods provide flexibility in product distribution and yield. Gasification generates syngas—a mixture of CO, H?, and CH?—used for power generation, synthetic fuel synthesis, and hydrogen production. Innovations in gasifier design, catalyst development, feedstock preparation, and temperature control are enhancing conversion efficiency and reducing tar formation. Integrated systems combining pyrolysis, gasification, and downstream upgrading allow greater value extraction from various feedstocks. These processes offer strong potential for waste valorization, transforming agricultural residues, municipal waste, and forestry byproducts into clean, high-quality energy carriers. Thermochemical technologies support decentralized energy solutions and contribute to the decarbonization of industrial and power sectors, making them essential components of modern bioenergy systems.

Bioenergy Crops – Cultivation & Genetics

Bioenergy crops such as miscanthus, switchgrass, jatropha, willow, eucalyptus, and fast-growing sorghum are essential for producing sustainable biomass feedstocks. Advances in crop genetics, molecular breeding, and biotechnology are improving yield potential, stress tolerance, nutrient use efficiency, and adaptability to marginal lands. Research focuses on enhancing biomass density, cell wall composition, and lignocellulosic accessibility to maximize conversion efficiency across biochemical and thermochemical pathways. Precision agriculture technologies, including remote sensing, soil mapping, and automated irrigation, optimize cultivation practices while reducing resource inputs. Sustainable land management strategies help minimize competition with food crops, protect biodiversity, and maintain ecosystem balance. Bioenergy crop cultivation also supports rural development by providing new income opportunities and strengthening agricultural diversification. Integrated farming systems that combine bioenergy crops with livestock and agroforestry further enhance land productivity and environmental resilience. With global demand for renewable biomass rising, scientifically improved bioenergy crops offer a scalable, climate-smart solution for long-term energy security and sustainability.

Biorefinery Technologies – Integrated Platforms

Biorefinery technologies enable the conversion of biomass into a spectrum of fuels, chemicals, materials, and energy through integrated processing pathways. These platforms mirror petroleum refineries but use renewable biological feedstocks, promoting circular resource utilization. Modern biorefineries incorporate biochemical, thermochemical, and hybrid conversion techniques to maximize value recovery from biomass. By-products such as lignin, sugars, lipids, and proteins are transformed into bioplastics, specialty chemicals, and high-quality fuels. Integrated process design enhances energy efficiency, reduces waste, and supports cost-effective operations. Innovations in catalytic upgrading, advanced separation processes, and modular biorefinery units are accelerating commercialization. Digital monitoring, AI optimization, and automation further enhance reliability and scalability. Biorefineries contribute significantly to reducing reliance on fossil resources while supporting economic growth and sustainable manufacturing. Their ability to produce multiple outputs from a single feedstock strengthens resilience and profitability, positioning biorefinery technologies as a cornerstone in the global transition toward bio-based and low-carbon industrial systems.

Renewable Heat & Power – Bioenergy Systems

Bioenergy systems are increasingly used to generate renewable heat and power through combustion, gasification, combined heat and power (CHP), and district heating networks. These systems effectively utilize agricultural residues, forestry biomass, organic waste, and industrial byproducts to produce stable and dispatchable energy. Modern combustion technologies integrate advanced boilers, emissions control systems, and heat recovery units to achieve high efficiencies and low environmental impact. CHP systems maximize energy utilization by simultaneously producing electricity and useful heat, supporting industrial operations, commercial facilities, and community energy networks. Continuous innovations in gas cleaning, turbine performance, and system automation improve operational reliability and economic viability. Bioenergy-driven district heating reduces reliance on fossil-based heating and offers long-term carbon reduction solutions for urban centers. As energy markets transition toward renewable and decentralized power generation, bioenergy systems provide a dependable, flexible, and sustainable alternative that strengthens grid stability while supporting global clean energy goals.

Advanced Feedstocks – Utilization & Optimization

Advanced feedstocks for bioenergy production include lignocellulosic residues, dedicated energy crops, algae, food waste, industrial byproducts, and biodegradable plastics. Their diverse characteristics require tailored processing strategies to optimize conversion efficiency and energy yields. Innovations in pretreatment—such as steam explosion, ionic liquids, alkaline processing, and enzymatic enhancement—improve biomass digestibility and reduce processing barriers. Feedstock blending techniques optimize moisture content, calorific value, and chemical composition to support stable conversion processes. Circular approaches prioritize the use of waste-derived feedstocks to minimize environmental impacts and avoid competition with agricultural land. Advanced characterization tools help assess feedstock quality, composition, and variability, enabling more predictable performance in biorefineries and thermochemical systems. Developing resilient supply chains with efficient harvesting, storage, and transportation further enhances feedstock reliability. As global bioenergy demand increases, optimized use of advanced feedstocks strengthens sustainability, cost-effectiveness, and the transition toward low-carbon, resource-efficient energy systems.

Biohydrogen – Clean Energy Potential

Biohydrogen production is emerging as a highly promising pathway for generating clean, carbon-neutral hydrogen using biological and thermochemical processes. Techniques such as dark fermentation, photofermentation, microbial electrolysis, and biomass gasification enable hydrogen generation from renewable organic materials. Ongoing research focuses on improving hydrogen yield, microbial efficiency, and reactor stability through metabolic engineering, catalyst development, and process optimization. Biohydrogen offers significant environmental benefits, including minimal greenhouse gas emissions and the ability to utilize agricultural residues, wastewater, and algal biomass as feedstocks. Advanced purification methods ensure high hydrogen purity suitable for fuel cells, transportation, and industrial applications. Integration with biorefineries enhances system efficiency by co-producing hydrogen alongside valuable bio-based products. As global industries seek alternative fuels to decarbonize hard-to-abate sectors, biohydrogen stands out as a scalable, sustainable solution that aligns with future hydrogen economies and long-term climate goals.

Policy & Regulations – Global Bioenergy Frameworks

Global bioenergy development is strongly influenced by evolving policies, regulatory frameworks, and sustainability mandates designed to accelerate the adoption of renewable energy. International agreements, national energy strategies, and carbon reduction commitments shape how biomass resources are produced, traded, and utilized. Policies supporting feed-in tariffs, tax incentives, renewable portfolio standards, and carbon pricing encourage investment in bioenergy technologies. Certification systems such as sustainability standards, lifecycle assessments, and land-use regulations ensure responsible sourcing and environmental integrity. Governments are also promoting innovation through research funding, pilot programs, and public-private partnerships. Clear regulatory pathways help industries navigate market complexities, enhance investor confidence, and support long-term planning. As nations strive to meet climate targets and energy security goals, robust policy frameworks play a critical role in scaling bioenergy solutions sustainably while balancing economic, social, and environmental priorities.

Biochar – Soil, Carbon & Environmental Benefits

Biochar is gaining global recognition for its ability to improve soil health, sequester carbon, and enhance environmental sustainability. Produced through controlled pyrolysis of biomass, biochar possesses high porosity, stability, and nutrient-retention properties that improve soil structure, water holding capacity, and microbial activity. Its long-term carbon stability enables effective carbon sequestration, contributing significantly to climate mitigation. Biochar also reduces nutrient leaching, enhances fertilizer efficiency, and supports sustainable agriculture. Applications extend beyond soil improvement to wastewater treatment, air purification, and construction materials. Innovations in feedstock selection, reactor design, and activation processes allow tailoring biochar properties for specific environmental or industrial uses. Integration of biochar into bioenergy systems further enhances sustainability by utilizing pyrolysis co-products and improving overall carbon balance. As global interest in regenerative agriculture and carbon-negative technologies grows, biochar stands out as a versatile and impactful tool for enhancing environmental resilience.

Smart Bioenergy – Digitalization & Efficiency

Smart bioenergy integrates digital technologies such as artificial intelligence, machine learning, IoT monitoring, predictive analytics, and automation to enhance efficiency, reliability, and sustainability in bioenergy production. Real-time monitoring systems optimize feedstock quality, reactor performance, and energy output while minimizing downtime and operational costs. Predictive maintenance supported by sensor networks improves equipment lifespan and process stability. Digital twins enable advanced modeling of biorefinery operations, allowing operators to simulate scenarios, optimize conversion pathways, and enhance yield performance. Integrated data platforms improve supply chain transparency, feedstock logistics, and sustainability tracking. Smart grid integration ensures efficient distribution of bioenergy-derived power and heat. As the bioenergy sector modernizes, digital transformation plays a critical role in improving resource use efficiency, reducing environmental impact, and strengthening economic viability. Smart bioenergy represents a future-ready approach that supports global energy transitions through enhanced control, precision, and sustainable innovation.

Market Analysis

The global biomass and bioenergy market is experiencing strong expansion driven by rising demand for renewable energy, carbon-neutral fuels, and sustainable waste-management solutions. Increasing pressure to reduce greenhouse gas emissions, combined with national clean-energy targets, continues to position biomass as a reliable and scalable contributor to the global energy transition. Governments across Europe, North America, and Asia-Pacific are strengthening policy frameworks and offering incentives to accelerate adoption of biomass-based power generation, biofuels, biogas, and advanced biorefinery systems. As industries seek cost-effective pathways to decarbonize operations, demand for biomass pellets, agricultural residues, forestry byproducts, and organic waste-derived feedstocks continues to rise. Significant investment is also flowing into next-generation biofuels, including sustainable aviation fuels, renewable diesel, cellulosic ethanol, and algal biofuels, which are gaining momentum as long-term solutions for emission-intensive transportation sectors. Technological innovations are improving the efficiency, scalability, and cost competitiveness of biomass conversion. Advanced thermochemical processes, anaerobic digestion, catalytic upgrading, and integrated biorefinery platforms are expanding the range of products derived from biomass, from heat and power to chemicals, fertilizers, and high-value bioproducts. Digitalization and automation are further enhancing process optimization, supply chain management, and predictive maintenance, supporting large-scale commercial deployment. The biogas and biomethane sectors are particularly growing, driven by demand for renewable natural gas, waste utilization strategies, and strong policy backing in Europe. Countries with abundant agricultural and forestry resources, such as Brazil, India, Indonesia, Canada, and Scandinavian nations, are emerging as major contributors to the global biomass supply chain.

Sustainability remains a central market driver, with lifecycle assessments, certification systems, and responsible sourcing standards increasingly shaping trade and investment. The ability of biomass systems to offer carbon-negative solutions such as biochar production, carbon sequestration, and BECCS (bioenergy with carbon capture and storage) positions the industry as a key player in climate-mitigation strategies. Growing interest in circular economy models is encouraging industries and municipalities to adopt waste-to-energy projects that convert organic waste into renewable power and fuels, reducing landfill burden and supporting resource efficiency.

Despite strong growth potential, the market faces challenges such as feedstock variability, supply logistics, land-use considerations, and competition with other renewable technologies. However, ongoing research, sustainable land-management practices, and policy alignment continue to overcome these barriers. With increasing global commitment to net-zero goals, the biomass and bioenergy sector is poised for long-term expansion, offering resilient, continuous, and environmentally responsible energy solutions for diverse industries and regions worldwide.

Past Conference Report

Biomass 2025

The 19th Global Summit and Expo on Biomass and Bioenergy is set to take place on October 27-28, 2025, in London, UK, bringing together global leaders, researchers, policymakers, and industry experts to discuss the latest advancements in bioenergy and biomass technologies. Under the theme "Decarbonizing the Energy Sector: Role of Biomass & Bioenergy Innovations," this summit will serve as a premier platform for exchanging groundbreaking research, sustainable practices, and innovative solutions driving the transition to cleaner energy. The event will feature keynote speeches, panel discussions, technical sessions, and networking opportunities, covering topics such as biomass feedstocks, biofuels, biogas production, carbon capture, and waste-to-energy solutions. With a strong focus on sustainability and circular bioeconomy, the conference aims to foster collaborations that accelerate global efforts toward achieving carbon neutrality.

Join us in London to engage with top experts, industry pioneers, and decision-makers, explore cutting-edge bioenergy technologies, and contribute to shaping a more sustainable future. Whether you are a scientist, entrepreneur, investor, or policymaker, this summit provides a unique opportunity to connect, collaborate, and innovate in the rapidly evolving world of biomass and bioenergy