ENGINEERING Biomass is an international, peer-reviewed journal dedicated to advancing the fundamental science and transformative engineering required for the high-value, efficient, and sustainable utilization of biomass resources. In the context of global carbon neutrality goals, the innovative conversion of abundant plant- and microbial-derived biomass—such as wood, bamboo, crop straw, and algae—is a pivotal scientific and technological frontier. Our mission is to establish a premier interdisciplinary platform that bridges foundational research with industrial application, specifically fostering the green and low-carbon processing of biomass to address challenges across agriculture, forestry, materials, energy, environment, and chemical engineering.

The journal publishes cutting-edge research on the integrated development of biomass through eco-design principles, circular bioeconomy frameworks, and climate-positive technologies spanning entire value chains. ENGINEERING Biomass distinguishes itself by a sharp focus on the engineering principles underpinning biomass conversion, aiming to become a definitive forum for research that translates fundamental insights into scalable, sustainable solutions.

Core Research Themes:

1. Biomass Fundamentals and Tailoring

· Structural elucidation, characterization, and interpretation of diverse biomass feedstocks.

· Directed synthesis and engineered production of biomass with tailored properties.

· Functional recombination, modification, and biomimetic design of lignocellulosic and other biomass components.

2. Green Conversion and Carbon Management

· Sustainable catalytic, biological, and thermochemical conversion technologies.

· Pathways for carbon fixation, storage, and transfer within engineered biomass systems.

· Waste-to-resource cascades and biorefinery concepts for maximizing value from forest, agricultural, aquatic, and municipal bio-waste streams.

3. Next-Generation Biomass-Based Materials and Chemicals

· Innovations in wood, bamboo, and non-wood natural fiber composites and functional materials.

· Algal- and biomass-derived polymers, biofuels, and high-value biochemicals.

· Design and engineering of biodegradable materials and performance products from renewable feedstocks.

4. Systems Integration and Sustainability Assessment

· Techno-economic analysis and life cycle assessment of integrated biomass pathways.

· AI/ML-driven optimization of multi-feedstock supply chains and conversion processes.

· Cross-sectoral synergies (e.g., forestry-agriculture-marine nexus) and policy mechanisms for regional bioeconomy transitions.

· Industrial symbiosis and hybrid system integration (e.g., biomass with other renewable energy systems).

By disseminating high-impact research and fostering global academic exchange, ENGINEERING Biomass strives to shape the future of biomass engineering, accelerate the transition to a circular bioeconomy, and solidify its position as a leading voice in the pursuit of a sustainable, low-carbon future.