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EUBCE 2026 - Stefano IANNELLO - Effect of Particle Structural Irregularities on Pyrolysis Performance: A 3D Multiphysics Model for Industrial-Grade Biomass Feedstocks

Effect of Particle Structural Irregularities on Pyrolysis Performance: A 3D Multiphysics Model for Industrial-Grade Biomass Feedstocks

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Pyrolysis

Applied and fundamental pyrolysis

Effect of Particle Structural Irregularities on Pyrolysis Performance: A 3D Multiphysics Model for Industrial-Grade Biomass Feedstocks

Short Introductive summary

This work presents an innovative geometry-resolved modelling framework that realistically represents the irregular morphology of industrial-grade biomass feedstocks used in thermochemical conversion processes. Unlike conventional models that simplify particles as spheres or pellets, it generates complex 3D wood-like geometries in MATLAB and embeds them into a coupled COMSOL Multiphysics environment to capture the interaction between particle structure, heat and mass transfer, and chemical reactions. The framework connects particle structure to thermochemical performance, revealing that irregular particles heat up to four times faster and produce significantly more permanent gases with less tar. This approach bridges the gap between laboratory-scale models and industrial feedstocks, setting a new standard for accurate, morphology-based biomass pyrolysis modelling.

Presenter

Stefano IANNELLO

University College London, Chemical Engineering Dpt., UNITED KINGDOM

Presenter's biography

Chemical Engineer and Postdoctoral Research Associate in the Chemical Engineering Department at UCL. Expertise in fundamental mechanisms governing mixing and segregation in fluidized bed reactors during thermochemical conversions of biomass and plastic feedstocks.

Biographies and Short introductive summaries are supplied directly by presenters and are published here unedited


Co-authors:

B. Anaya, University College London, UNITED KINGDOM
M. Matterazzi, University College London, UNITED KINGDOM
S. Iannello, University College London, UNITED KINGDOM

Session reference: 5CO.7.2