Biofuels and Bioenergy

About us

The 20th World Congress on Biofuels and Bioenergy, scheduled for September 14–15, 2026 in Rome, is a globally recognized platform dedicated to advancing innovation and collaboration in the field of sustainable energy. Our mission is to bring together leading scientists, researchers, industry experts, and policymakers to exchange knowledge, share groundbreaking research, and explore practical solutions to the world’s growing energy and environmental challenges.

We are committed to fostering interdisciplinary dialogue and promoting cutting-edge developments in biofuels, biomass conversion, biorefineries, and renewable energy technologies. Through high-quality keynote sessions, technical discussions, and networking opportunities, we aim to support the growth of a sustainable bioeconomy and encourage the adoption of clean energy solutions worldwide.

By creating a dynamic and inclusive environment, we strive to inspire innovation, strengthen global partnerships, and contribute to the transition toward a low-carbon future. Our conference serves as a catalyst for scientific excellence, industry advancement, and meaningful collaboration in shaping the future of bioenergy

About Conference

The 20th World Congress on Biofuels and Bioenergy, scheduled for September 14–15, 2026 in Rome, Italy, is a premier international event bringing together leading researchers, scientists, industry experts, and policymakers in the field of renewable energy. The congress aims to explore the latest innovations and advancements in biofuels, biomass conversion, and sustainable bioenergy systems. It will serve as a global platform for sharing cutting-edge research, emerging technologies, and practical solutions to address the growing demand for clean and sustainable energy sources.

The conference will cover a wide range of topics, including advanced biofuels, algal bioenergy, biorefineries, waste-to-energy technologies, carbon capture and utilization, and the integration of bioenergy with other renewable sources such as solar and wind. Participants will have the opportunity to engage in keynote sessions, technical presentations, panel discussions, and networking activities designed to foster collaboration and knowledge exchange.

In addition to scientific discussions, the congress will also address economic, environmental, and policy aspects of the bioenergy sector, highlighting strategies for commercialization and global implementation. With its focus on innovation and sustainability, the event aims to accelerate the transition toward a low-carbon future. Hosting the conference in Rome—a city known for its rich history and vibrant culture—provides an inspiring backdrop for meaningful discussions and international partnerships in the rapidly evolving bioenergy landscape.

Sessions & Tracks

Advanced Biofuels and Next-Generation Energy Technologies

Advanced biofuels and next-generation energy technologies represent a significant evolution in the pursuit of sustainable and low-carbon energy solutions. Unlike conventional biofuels, these advanced alternatives are derived from non-food biomass sources such as agricultural residues, lignocellulosic materials, algae, and industrial waste, ensuring minimal impact on food security and land use. Innovations in biochemical and thermochemical conversion processes—such as enzymatic hydrolysis, gasification, and pyrolysis—are enhancing fuel yields, improving efficiency, and reducing overall production costs. Additionally, breakthroughs in synthetic biology and metabolic engineering are enabling the development of more robust and efficient pathways for biofuel production.

These technologies are increasingly being integrated into modern energy systems, including sustainable aviation fuels, hydrogen production, and hybrid renewable energy networks. Their potential to significantly reduce greenhouse gas emissions makes them a key component in global decarbonization strategies. However, challenges such as large-scale commercialization, infrastructure development, and regulatory alignment remain. Continued investment, research collaboration, and supportive policy frameworks are essential to accelerate the deployment of these innovations, ultimately contributing to a cleaner, more resilient, and energy-secure future.

Biomass Conversion and Feedstock Engineering

Biomass conversion and feedstock engineering play a crucial role in transforming organic materials into sustainable energy and valuable bio-based products. This field focuses on utilizing diverse biomass sources such as agricultural residues, forestry waste, energy crops, and industrial by-products, converting them into fuels like bioethanol, biodiesel, and biogas. Advanced conversion techniques—including biochemical processes like fermentation and enzymatic hydrolysis, as well as thermochemical methods such as gasification and pyrolysis—are continuously improving efficiency, yield, and overall process sustainability.

Feedstock engineering further enhances the quality and availability of biomass through innovations in crop improvement, genetic engineering, and optimized cultivation practices. Pre-treatment technologies are also being developed to make biomass more accessible for conversion, reducing costs and increasing productivity. Alongside technological advancements, there is a strong emphasis on sustainability, ensuring responsible sourcing, minimal environmental impact, and efficient supply chain management. Together, these developments are essential for scaling up bioenergy production and supporting the transition toward a cleaner and more sustainable energy future.

Algal Biofuels and Marine Bioenergy Systems

Algal biofuels are emerging as a highly promising alternative energy source due to their rapid growth rates, high lipid content, and ability to grow in non-arable land and saline water. Microalgae and macroalgae can be cultivated using wastewater or marine environments, making them a sustainable and eco-friendly feedstock for biofuel production. Advanced cultivation techniques, harvesting methods, and oil extraction technologies are improving the commercial viability of algal fuels.

Marine bioenergy systems extend beyond algae to include ocean-based renewable energy solutions integrated with biofuel production. Innovations in photobioreactors, genetic engineering, and nutrient optimization are enhancing productivity and reducing costs. These systems offer significant potential for large-scale carbon capture and renewable fuel generation, contributing to global energy diversification and environmental sustainability.

Bioethanol, Biodiesel, and Biogas Production Technologies

Bioethanol, biodiesel, and biogas remain the backbone of the bioenergy sector, offering cleaner alternatives to fossil fuels. Produced from feedstocks such as sugarcane, corn, vegetable oils, and organic waste, these fuels are widely used in transportation, power generation, and heating applications. Technological advancements are improving conversion efficiency, fuel quality, and scalability of production processes.

Modern innovations include advanced fermentation techniques, transesterification processes, and anaerobic digestion systems that maximize output while minimizing waste. Integration with waste management systems and agricultural practices further enhances sustainability. Continued improvements in production technologies are essential to meet growing energy demands and environmental regulations.

Waste-to-Energy and Circular Bioeconomy

Waste-to-energy technologies are transforming organic and industrial waste into valuable energy resources, reducing landfill use and environmental pollution. Processes such as anaerobic digestion, incineration, and pyrolysis convert waste into electricity, heat, or biofuels, supporting efficient resource utilization. These approaches contribute to cleaner cities and sustainable waste management systems.

The concept of a circular bioeconomy emphasizes the reuse, recycling, and regeneration of biological resources to create a closed-loop system. By converting waste into energy and valuable by-products, industries can reduce dependency on raw materials and minimize environmental impact. This approach supports economic growth while promoting sustainability and resource efficiency.

Biorefineries and Sustainable Industrial Processes

Biorefineries play a central role in converting biomass into a wide range of products, including fuels, chemicals, and materials, similar to how petroleum refineries operate. These integrated facilities maximize the value of biomass by producing multiple outputs, improving economic feasibility and reducing waste.

Sustainable industrial processes within biorefineries focus on energy efficiency, low emissions, and environmentally friendly production methods. Innovations in process design, catalysis, and system integration are enabling industries to transition toward greener operations. Biorefineries are key to advancing the bioeconomy and reducing reliance on fossil-based resources.

 Carbon Capture, Utilization, and Emission Reduction

Carbon capture, utilization, and storage (CCUS) technologies are essential for mitigating climate change by reducing carbon dioxide emissions from industrial and energy sectors. These systems capture CO? at the source and either store it underground or convert it into useful products such as fuels, chemicals, and building materials.

Advancements in capture technologies, including chemical absorption and membrane separation, are improving efficiency and cost-effectiveness. Integrating CCUS with bioenergy systems creates opportunities for negative emissions, significantly contributing to global decarbonization efforts and climate goals.

Sustainable Aviation Fuels and Green Transportation

Sustainable aviation fuels (SAFs) are gaining importance as the aviation industry seeks to reduce its carbon footprint. Derived from renewable feedstocks such as waste oils, agricultural residues, and algae, SAFs can significantly lower greenhouse gas emissions compared to conventional jet fuels.

In addition to aviation, green transportation solutions include biofuels for road, rail, and maritime sectors. Advances in fuel technologies, engine compatibility, and infrastructure development are enabling the transition to cleaner mobility systems. These innovations are crucial for achieving sustainable and low-emission transportation worldwide.

Renewable Energy Integration and Smart Grid Innovations

The integration of bioenergy with other renewable sources such as solar and wind is essential for building resilient and reliable energy systems. Smart grids enable efficient energy distribution, real-time monitoring, and better demand-response management, ensuring optimal utilization of renewable resources.

Technological advancements in energy storage, grid digitalization, and decentralized energy systems are enhancing the stability and flexibility of modern power networks. These innovations support the seamless incorporation of bioenergy into existing infrastructure, contributing to a sustainable energy future.

 Artificial Intelligence and Digitalization in Bioenergy Systems

 Artificial intelligence (AI) and digital technologies are transforming the bioenergy sector by optimizing processes, improving efficiency, and enabling predictive analytics. AI-driven models can enhance biomass supply chain management, monitor system performance, and optimize production processes in real time.

Digitalization, including the use of IoT, big data, and automation, is enabling smarter and more efficient bioenergy systems. These technologies reduce operational costs, improve decision-making, and support large-scale deployment of bioenergy solutions, driving innovation and sustainability in the energy sector.

Thermochemical Conversion Technologies

Thermochemical conversion technologies play a vital role in transforming biomass into usable fuels through processes such as pyrolysis, gasification, and combustion. These methods enable the efficient breakdown of complex organic materials into syngas, bio-oil, and solid residues. Continuous advancements in reactor design, catalyst development, and process optimization are improving conversion efficiency and reducing emissions. These technologies are particularly
valuable for handling heterogeneous feedstocks and scaling up industrial bioenergy production.

 Bio chemical Conversion and Fermentation Technologies

Biochemical processes utilize microorganisms and enzymes to convert biomass into biofuels and bio-based products. Techniques such as fermentation and enzymatic hydrolysis are widely used in producing bioethanol and biogas. Recent innovations in microbial engineering and enzyme efficiency are enhancing yield, reducing processing time, and lowering costs. These advancements are crucial for making biofuel production more sustainable and commercially viable.

Energy Crops and Sustainable Feedstock Development

The development of dedicated energy crops is essential for ensuring a consistent and sustainable biomass supply. Research focuses on high-yield, low-input crops that can grow on marginal lands without affecting food production. Advances in genetic engineering and agronomic practices are improving crop resilience, productivity, and adaptability to climate change. Sustainable feedstock development supports long-term bioenergy expansion while maintaining ecological balance.

Industrial Biotechnology in Biofuel Production

Industrial biotechnology leverages biological systems and organisms to produce fuels, chemicals, and materials. Through genetic modification and metabolic pathway optimization, researchers are developing more efficient microorganisms for biofuel synthesis. This approach reduces reliance on traditional chemical processes, lowers environmental impact, and enhances production efficiency, making it a key driver of innovation in the bioenergy sector.

 Hydrogen Production from Biomass

Hydrogen is emerging as a clean and versatile energy carrier, and biomass offers a renewable pathway for its production. Processes such as gasification and biological hydrogen production enable the generation of green hydrogen from organic materials. Integrating biomass-based hydrogen production with renewable energy systems can significantly reduce carbon emissions and support the transition to a hydrogen-based economy

 Bioenergy Policy, Regulations, and Global Strategies

 Effective policy frameworks and regulations are critical for the growth and adoption of bioenergy technologies. This area focuses on international policies, government incentives, carbon pricing mechanisms, and sustainability standards. Collaborative global strategies are needed to harmonize regulations, promote investment, and ensure the responsible development of bioenergy markets worldwide.

 Bioenergy Supply Chain and Logistics

Efficient supply chain management is essential for the large-scale deployment of bioenergy systems. This includes biomass collection, transportation, storage, and distribution. Innovations in logistics, digital tracking, and supply chain optimization are improving reliability and reducing costs. Addressing supply chain challenges ensures consistent feedstock availability and supports industrial-scale biofuel production

 Sustainable Waste Management and Bioenergy Recovery

The integration of waste management with bioenergy production offers a sustainable solution for reducing environmental pollution. Organic waste from municipal, agricultural, and industrial sources can be converted into energy through anaerobic digestion and other technologies. This approach not only generates renewable energy but also reduces landfill waste and promotes resource efficiency.

Advanced Catalysts and Process Optimization

Catalysts play a crucial role in enhancing the efficiency of biofuel production processes. Research focuses on developing advanced catalysts that improve reaction rates, selectivity, and energy efficiency. Process optimization techniques, including automation and real-time monitoring, are further improving productivity and reducing operational costs in bioenergy systems.

Climate Change Mitigation and Low-Carbon Technologies

Bioenergy technologies are central to global efforts to combat climate change. This area explores strategies for reducing greenhouse gas emissions through sustainable fuel production, carbon capture, and energy efficiency improvements. Integrating bioenergy with low-carbon technologies helps achieve international climate goals and supports a transition to a cleaner energy system.

Commercialization and Scaling of Biofuel Technologies

Bringing biofuel innovations from the laboratory to the market requires overcoming technical, financial, and regulatory challenges. This track focuses on scaling up production technologies, attracting investment, and developing business models for commercialization. Successful deployment of biofuel technologies is essential for meeting global energy demands sustainably.

Emerging Trends in Renewable and Green Energy

The renewable energy sector is rapidly evolving, with new technologies and approaches continuously emerging. This area highlights the latest trends in bioenergy, hybrid energy systems, and sustainable innovations. Understanding these trends helps stakeholders stay competitive and adapt to changing energy landscapes.

Innovations in Bio-based Chemicals and Materials

Beyond fuels, biomass can be converted into a wide range of bio-based chemicals and materials, including bioplastics and green solvents. These innovations reduce dependence on fossil resources and support the development of sustainable industries. Advances in this field are expanding the economic potential of bioenergy systems.

Life Cycle Assessment and Sustainability Analysis

Life cycle assessment (LCA) is essential for evaluating the environmental impact of bioenergy systems from production to end use. This approach helps identify areas for improvement, optimize resource use, and ensure sustainability. LCA supports informed decision-making and promotes environmentally responsible energy solutions.

Future Prospects and Global Collaboration in Bioenergy

The future of bioenergy depends on strong international collaboration and knowledge sharing. This track focuses on building partnerships among researchers, industries, and governments to drive innovation and address global energy challenges. Collaborative efforts are key to accelerating the adoption of sustainable bioenergy technologies worldwide.

Market Analysis

Technological advancements in biomass conversion, feedstock engineering, and integrated biorefinery processes are improving production yields and reducing operational costs. Innovations such as enzymatic hydrolysis, gasification, pyrolysis, and synthetic biology are enabling more efficient and commercially viable fuel production pathways. In addition, increasing investments from both public and private sectors are fueling research, infrastructure development, and commercialization of bioenergy solutions. The growing The global biofuels and bioenergy market is witnessing significant growth, driven by the urgent need to reduce carbon emissions and transition toward sustainable energy sources. Increasing environmental concerns, along with international climate commitments, are accelerating the adoption of renewable fuels across transportation, aviation, and industrial sectors.

Bioethanol and biodiesel continue to dominate the market, supported by favorable government policies, blending mandates, and financial incentives. Meanwhile, advanced biofuels derived from non-food biomass, lignocellulosic materials, and algae are gaining strong momentum due to their higher efficiency, scalability, and lower environmental impact. These next-generation fuels are expected to play a critical role in future energy systems. adoption of sustainable aviation fuels (SAFs) and bio-based chemicals is expanding the market beyond traditional applications, creating new revenue streams and industrial opportunities. Regionally, North America and Europe lead the market due to strong policy frameworks, established infrastructure, and technological maturity. At the same time, the Asia-Pacific region is emerging as a high-growth hub, driven by rising energy demand, supportive government initiatives, and abundant biomass resources.

However, the market still faces challenges such as high capital investment, feedstock supply chain complexities, land-use concerns, and policy uncertainties. Addressing these issues requires coordinated efforts in innovation, regulatory support, and international collaboration. Overall, the biofuels and bioenergy sector is poised for sustained expansion, playing a crucial role in advancing global decarbonization, enhancing energy security, and supporting the development of a circular and sustainable bioeconomy

Past Conference

The 19th World Congress on Biofuels and Bioenergy is scheduled to take place on November 13–14, 2025, in the iconic city of Paris. This prestigious international event aims to bring together leading scientists, researchers, industry professionals, and policymakers from around the world to discuss the latest advancements and foster collaborative innovation in the field of biofuels and sustainable energy.

Centered around the theme “Advancing Biofuels for a Sustainable and Low-Carbon Future,” the congress highlights the growing importance of renewable energy solutions in addressing global environmental challenges such as climate change, carbon emissions, and energy security. The event provides a comprehensive platform for participants to explore a wide range of topics, including advanced biofuels, biomass conversion technologies, bioethanol and biodiesel production, waste-to-energy systems, biorefinery innovations, and sustainable feedstock development. Biofuels 2025 offers an engaging scientific program featuring keynote presentations, plenary sessions, technical discussions, and interactive panel forums led by internationally recognized experts. Attendees will gain valuable insights into emerging technologies, policy frameworks, and real-world applications that are shaping the future of the bioenergy sector. The conference also emphasizes innovative approaches such as algae-based fuels, carbon capture technologies, and the integration of artificial intelligence in optimizing bioenergy systems.

Paris, renowned for its rich cultural heritage, global connectivity, and vibrant atmosphere, provides an ideal setting for this global gathering. Participants will have the opportunity to experience the city’s iconic landmarks, diverse cuisine, and dynamic cultural scene alongside the scientific sessions. In addition to the academic program, the congress will feature networking sessions, poster presentations, and social events, enabling attendees to exchange ideas, build collaborations, and establish meaningful professional connections. From early-career researchers to experienced industry leaders, the event is designed to inspire innovation, encourage knowledge sharing, and contribute to the advancement of sustainable energy solutions worldwide.

Key topics

• Advanced Biofuels
• Next-Generation Bioenergy Technologies
• Biomass Conversion Techniques
• Feedstock Engineering
• Lignocellulosic Biomass Utilization
• Algal Biofuels
• Marine Bioenergy Systems
• Bioethanol Production
• Biodiesel Technologies
• Biogas and Anaerobic Digestion
• Waste-to-Energy Technologies
• Circular Bioeconomy
• Biorefineries
• Sustainable Industrial Processes
• Thermochemical Conversion (Pyrolysis, Gasification)
• Biochemical Conversion Processes
• Enzymatic Hydrolysis
• Fermentation Technologies
• Synthetic Biology in Bioenergy
• Metabolic Engineering
• Carbon Capture and Storage (CCS)
• Carbon Utilization Technologies
• Emission Reduction Strategies
• Life Cycle Assessment (LCA)
• Environmental Impact Analysis
• Sustainable Aviation Fuels (SAFs)
• Green Transportation Fuels
• Renewable Energy Integration
• Hybrid Energy Systems
• Smart Grid Technologies
• Energy Storage Systems
• Hydrogen Production from Biomass
• Biohydrogen and Biohythane
• Bioenergy Policy and Regulations
• Global Energy Markets
• Biofuel Commercialization
• Investment and Funding in Bioenergy
• Supply Chain Management
• Feedstock Logistics and Optimization
• Agricultural Residues Utilization
• Forestry Biomass Applications
• Industrial Waste Utilization
• Municipal Solid Waste to Energy
• Climate Change Mitigation
• Decarbonization Strategies
• Net-Zero Energy Goals
• Sustainable Development Goals (SDGs)
• Rural Energy Solutions
• Energy Security and Sustainability
• AI in Bioenergy Systems