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Predicting biomass comminution: Physical experiment, population balance model, and deep learning

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12 Scopus citations

Abstract

An extended population balance model (PBM) and a deep learning-based enhanced deep neural operator (DNO+) model are introduced for predicting particle size distribution (PSD) of comminuted biomass through a large knife mill. Experimental tests using corn stalks with varied moisture contents, mill blade speeds, and discharge screen sizes are conducted to support model development. A novel mechanism in the extended PBM allows for including additional input parameters such as moisture content, which is not possible in the original PBM. The DNO+ model can include influencing factors of different data types such as moisture content and discharge screen size, which significantly extends the engineering applicability of the standard DNO model that only admits feed PSD and outcome PSD. Test results show that both models are remarkably accurate in the calibration or training parameter space and can be used as surrogate models to provide effective guidance for biomass preprocessing design.

Original languageEnglish
Article number119830
JournalPowder Technology
Volume441
Early online dateMay 4 2024
DOIs
StatePublished - May 15 2024

Keywords

  • Corn stover
  • Deep neural operator
  • Knife mill
  • Machine learning
  • Preprocessing

INL Publication Number

  • INL/JOU-24-80130
  • 183418

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