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Hybrid modeling of hetero-agglomeration processes: a framework for model selection and arrangement

Published: 01 April 2023 Publication History
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  • Abstract

    Modeling of hetero-agglomeration processes is invaluable for a variety of applications in particle technology. Traditionally, population balance equations (PBE) are employed; however, calculation of kinetic rates is challenging due to heterogeneous surface properties and insufficient material data. This study investigates how the integration of machine learning (ML) techniques—resulting in so-called hybrid models (HM)—can help to integrate experimental data and close this gap. A variety of ML algorithms can either be used to estimate kinetic rates for the PBE (serial HM) or to correct the PBE’s output (parallel HM). As the optimal choice of the HM architecture is highly problem-dependent, we propose a general and objective framework for model selection and arrangement. A repeated nested cross-validation with integrated hyper-parameter optimization ensures a fair and meaningful comparison between different HMs. This framework was subsequently applied to experimental data of magnetic seeded filtration, where prediction errors of the pure PBE were reduced by applying the hybrid modeling approach. The framework helped to identify that for the given data set, serial outperforms parallel arrangement and that more advanced ML algorithms provide better interpolation ability. Additionally, it enables to draw inferences to general properties of the underlying PBE model and a statistical investigation of hyper-parameter optimization that paves the way for further improvements.

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              cover image Engineering with Computers
              Engineering with Computers  Volume 40, Issue 1
              Feb 2024
              662 pages
              ISSN:0177-0667
              EISSN:1435-5663
              Issue’s Table of Contents

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              Springer-Verlag

              Berlin, Heidelberg

              Publication History

              Published: 01 April 2023
              Accepted: 14 March 2023
              Received: 14 September 2022

              Author Tags

              1. Hetero-agglomeration
              2. Population balance equations
              3. Machine learning
              4. Hybrid modeling
              5. Hyper-parameter optimization
              6. Repeated nested cross-validation

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