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Effect of roll compaction on granule size distribution of microcrystalline cellulose–mannitol mixtures: computational intelligence modeling and parametric analysis

Dry granulation using roll compaction is a typical unit operation for producing solid dosage forms in the pharmaceutical industry. Dry granulation is commonly used if the powder mixture is sensitive to heat and moisture and has poor flow properties. The output of roll compaction is compacted ribbons...

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Autores principales: Kazemi, Pezhman, Khalid, Mohammad Hassan, Pérez Gago, Ana, Kleinebudde, Peter, Jachowicz, Renata, Szlęk, Jakub, Mendyk, Aleksander
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Dove Medical Press 2017
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC5261554/
https://www.ncbi.nlm.nih.gov/pubmed/28176905
http://dx.doi.org/10.2147/DDDT.S124670
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author Kazemi, Pezhman
Khalid, Mohammad Hassan
Pérez Gago, Ana
Kleinebudde, Peter
Jachowicz, Renata
Szlęk, Jakub
Mendyk, Aleksander
author_facet Kazemi, Pezhman
Khalid, Mohammad Hassan
Pérez Gago, Ana
Kleinebudde, Peter
Jachowicz, Renata
Szlęk, Jakub
Mendyk, Aleksander
author_sort Kazemi, Pezhman
collection PubMed
description Dry granulation using roll compaction is a typical unit operation for producing solid dosage forms in the pharmaceutical industry. Dry granulation is commonly used if the powder mixture is sensitive to heat and moisture and has poor flow properties. The output of roll compaction is compacted ribbons that exhibit different properties based on the adjusted process parameters. These ribbons are then milled into granules and finally compressed into tablets. The properties of the ribbons directly affect the granule size distribution (GSD) and the quality of final products; thus, it is imperative to study the effect of roll compaction process parameters on GSD. The understanding of how the roll compactor process parameters and material properties interact with each other will allow accurate control of the process, leading to the implementation of quality by design practices. Computational intelligence (CI) methods have a great potential for being used within the scope of quality by design approach. The main objective of this study was to show how the computational intelligence techniques can be useful to predict the GSD by using different process conditions of roll compaction and material properties. Different techniques such as multiple linear regression, artificial neural networks, random forest, Cubist and k-nearest neighbors algorithm assisted by sevenfold cross-validation were used to present generalized models for the prediction of GSD based on roll compaction process setting and material properties. The normalized root-mean-squared error and the coefficient of determination (R(2)) were used for model assessment. The best fit was obtained by Cubist model (normalized root-mean-squared error =3.22%, R(2)=0.95). Based on the results, it was confirmed that the material properties (true density) followed by compaction force have the most significant effect on GSD.
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spelling pubmed-52615542017-02-07 Effect of roll compaction on granule size distribution of microcrystalline cellulose–mannitol mixtures: computational intelligence modeling and parametric analysis Kazemi, Pezhman Khalid, Mohammad Hassan Pérez Gago, Ana Kleinebudde, Peter Jachowicz, Renata Szlęk, Jakub Mendyk, Aleksander Drug Des Devel Ther Original Research Dry granulation using roll compaction is a typical unit operation for producing solid dosage forms in the pharmaceutical industry. Dry granulation is commonly used if the powder mixture is sensitive to heat and moisture and has poor flow properties. The output of roll compaction is compacted ribbons that exhibit different properties based on the adjusted process parameters. These ribbons are then milled into granules and finally compressed into tablets. The properties of the ribbons directly affect the granule size distribution (GSD) and the quality of final products; thus, it is imperative to study the effect of roll compaction process parameters on GSD. The understanding of how the roll compactor process parameters and material properties interact with each other will allow accurate control of the process, leading to the implementation of quality by design practices. Computational intelligence (CI) methods have a great potential for being used within the scope of quality by design approach. The main objective of this study was to show how the computational intelligence techniques can be useful to predict the GSD by using different process conditions of roll compaction and material properties. Different techniques such as multiple linear regression, artificial neural networks, random forest, Cubist and k-nearest neighbors algorithm assisted by sevenfold cross-validation were used to present generalized models for the prediction of GSD based on roll compaction process setting and material properties. The normalized root-mean-squared error and the coefficient of determination (R(2)) were used for model assessment. The best fit was obtained by Cubist model (normalized root-mean-squared error =3.22%, R(2)=0.95). Based on the results, it was confirmed that the material properties (true density) followed by compaction force have the most significant effect on GSD. Dove Medical Press 2017-01-18 /pmc/articles/PMC5261554/ /pubmed/28176905 http://dx.doi.org/10.2147/DDDT.S124670 Text en © 2017 Kazemi et al. This work is published and licensed by Dove Medical Press Limited The full terms of this license are available at https://www.dovepress.com/terms.php and incorporate the Creative Commons Attribution – Non Commercial (unported, v3.0) License (http://creativecommons.org/licenses/by-nc/3.0/). By accessing the work you hereby accept the Terms. Non-commercial uses of the work are permitted without any further permission from Dove Medical Press Limited, provided the work is properly attributed.
spellingShingle Original Research
Kazemi, Pezhman
Khalid, Mohammad Hassan
Pérez Gago, Ana
Kleinebudde, Peter
Jachowicz, Renata
Szlęk, Jakub
Mendyk, Aleksander
Effect of roll compaction on granule size distribution of microcrystalline cellulose–mannitol mixtures: computational intelligence modeling and parametric analysis
title Effect of roll compaction on granule size distribution of microcrystalline cellulose–mannitol mixtures: computational intelligence modeling and parametric analysis
title_full Effect of roll compaction on granule size distribution of microcrystalline cellulose–mannitol mixtures: computational intelligence modeling and parametric analysis
title_fullStr Effect of roll compaction on granule size distribution of microcrystalline cellulose–mannitol mixtures: computational intelligence modeling and parametric analysis
title_full_unstemmed Effect of roll compaction on granule size distribution of microcrystalline cellulose–mannitol mixtures: computational intelligence modeling and parametric analysis
title_short Effect of roll compaction on granule size distribution of microcrystalline cellulose–mannitol mixtures: computational intelligence modeling and parametric analysis
title_sort effect of roll compaction on granule size distribution of microcrystalline cellulose–mannitol mixtures: computational intelligence modeling and parametric analysis
topic Original Research
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC5261554/
https://www.ncbi.nlm.nih.gov/pubmed/28176905
http://dx.doi.org/10.2147/DDDT.S124670
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