Feed factor profile prediction model for two-component mixed powder in the twin-screw feeder
In continuous pharmaceutical manufacturing processes, it is crucial to control the powder flow rate. The feeding process is characterized by the amount of powder delivered per screw rotation, referred to as the feed factor. This study aims to develop models for predicting the feed factor profiles (F...
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Veröffentlicht in: | International journal of pharmaceutics: X 2024-06, Vol.7, p.100242-100242, Article 100242 |
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Sprache: | eng |
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Zusammenfassung: | In continuous pharmaceutical manufacturing processes, it is crucial to control the powder flow rate. The feeding process is characterized by the amount of powder delivered per screw rotation, referred to as the feed factor. This study aims to develop models for predicting the feed factor profiles (FFPs) of two-component mixed powders with various formulations, while most previous studies have focused on single-component powders. It further aims to identify the suitable model type and to determine the significance of material properties in enhancing prediction accuracy by using several FFP prediction models with different input variables. Four datasets from the experiment were generated with different ranges of the mass fraction of active pharmaceutical ingredients (API) and the powder weight in the hopper. The candidates for the model inputs are (a) the mass fraction of API, (b) process parameters, and (c) material properties. It is desirable to construct a high-performance prediction model without the material properties because their measurement is laborious. The results show that using (c) as input variables did not improve the prediction accuracy as much, thus there is no need to use them.
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•Feed factor profiles (FFPs) of two-component mixed powders were predicted.•Key input variables crucial for accurate FFP prediction were unveiled.•Material properties were shown to have a minimal impact on prediction precision.•Combining simple linear regression and random forest yielded the best results. |
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ISSN: | 2590-1567 2590-1567 |
DOI: | 10.1016/j.ijpx.2024.100242 |