Hybrid modeling of T-shaped partial least squares regression and transfer learning for formulation and manufacturing process development of new drug products
- Author
- Keita Yaginuma (UGent) , Kensaku Matsunami (UGent) , Laure Descamps (UGent) , Alexander Ryckaert (UGent) and Thomas De Beer (UGent)
- Organization
- Abstract
- T-shaped partial least squares regression (T-PLSR) is a valuable machine learning technique for the formulation and manufacturing process development of new drug products. An accurate T-PLSR model requires experimental data with multiple formulations and process conditions. However, it is usually challenging to collect comprehensive experimental data using large-scale manufacturing equipment because of the cost, time, and large consumption of raw materials. This study proposes a hybrid modeling of T-PLSR and transfer learning (TL) to enhance the prediction performance of a T-PLSR model for large-scale manufacturing data by exploiting a large amount of small-scale manufacturing data for model building. The proposed method of T-PLSR+TL was applied to a practical case study focusing on scaling up the tableting process from an experienced compaction simulator to a less-experienced rotary tablet press. The T-PLSR+TL models achieved significantly better prediction performance for tablet quality attributes of new drug products than T-PLSR models without using large-scale manufacturing data with new drug products. The results demonstrated that T-PLSR+TL is more capable of addressing new drug products than T-PLSR by using small-scale manufacturing data to cover a scarcity of large-scale manufacturing data. Furthermore, T-PLSR+TL holds the potential to streamline formulation and manufacturing process development activities for new drug products using an extensive database.
- Keywords
- Transfer learning, T-shaped partial least squares regression, Machine learning, Scale-up, Tableting
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Citation
Please use this url to cite or link to this publication: http://hdl.handle.net/1854/LU-01J3D9Z8GM72HMJBNDXDMAHCY9
- MLA
- Yaginuma, Keita, et al. “Hybrid Modeling of T-Shaped Partial Least Squares Regression and Transfer Learning for Formulation and Manufacturing Process Development of New Drug Products.” INTERNATIONAL JOURNAL OF PHARMACEUTICS, vol. 662, 2024, doi:10.1016/j.ijpharm.2024.124463.
- APA
- Yaginuma, K., Matsunami, K., Descamps, L., Ryckaert, A., & De Beer, T. (2024). Hybrid modeling of T-shaped partial least squares regression and transfer learning for formulation and manufacturing process development of new drug products. INTERNATIONAL JOURNAL OF PHARMACEUTICS, 662. https://doi.org/10.1016/j.ijpharm.2024.124463
- Chicago author-date
- Yaginuma, Keita, Kensaku Matsunami, Laure Descamps, Alexander Ryckaert, and Thomas De Beer. 2024. “Hybrid Modeling of T-Shaped Partial Least Squares Regression and Transfer Learning for Formulation and Manufacturing Process Development of New Drug Products.” INTERNATIONAL JOURNAL OF PHARMACEUTICS 662. https://doi.org/10.1016/j.ijpharm.2024.124463.
- Chicago author-date (all authors)
- Yaginuma, Keita, Kensaku Matsunami, Laure Descamps, Alexander Ryckaert, and Thomas De Beer. 2024. “Hybrid Modeling of T-Shaped Partial Least Squares Regression and Transfer Learning for Formulation and Manufacturing Process Development of New Drug Products.” INTERNATIONAL JOURNAL OF PHARMACEUTICS 662. doi:10.1016/j.ijpharm.2024.124463.
- Vancouver
- 1.Yaginuma K, Matsunami K, Descamps L, Ryckaert A, De Beer T. Hybrid modeling of T-shaped partial least squares regression and transfer learning for formulation and manufacturing process development of new drug products. INTERNATIONAL JOURNAL OF PHARMACEUTICS. 2024;662.
- IEEE
- [1]K. Yaginuma, K. Matsunami, L. Descamps, A. Ryckaert, and T. De Beer, “Hybrid modeling of T-shaped partial least squares regression and transfer learning for formulation and manufacturing process development of new drug products,” INTERNATIONAL JOURNAL OF PHARMACEUTICS, vol. 662, 2024.
@article{01J3D9Z8GM72HMJBNDXDMAHCY9,
abstract = {{T-shaped partial least squares regression (T-PLSR) is a valuable machine learning technique for the formulation and manufacturing process development of new drug products. An accurate T-PLSR model requires experimental data with multiple formulations and process conditions. However, it is usually challenging to collect comprehensive experimental data using large-scale manufacturing equipment because of the cost, time, and large consumption of raw materials. This study proposes a hybrid modeling of T-PLSR and transfer learning (TL) to enhance the prediction performance of a T-PLSR model for large-scale manufacturing data by exploiting a large amount of small-scale manufacturing data for model building. The proposed method of T-PLSR+TL was applied to a practical case study focusing on scaling up the tableting process from an experienced compaction simulator to a less-experienced rotary tablet press. The T-PLSR+TL models achieved significantly better prediction performance for tablet quality attributes of new drug products than T-PLSR models without using large-scale manufacturing data with new drug products. The results demonstrated that T-PLSR+TL is more capable of addressing new drug products than T-PLSR by using small-scale manufacturing data to cover a scarcity of large-scale manufacturing data. Furthermore, T-PLSR+TL holds the potential to streamline formulation and manufacturing process development activities for new drug products using an extensive database.}},
articleno = {{124463}},
author = {{Yaginuma, Keita and Matsunami, Kensaku and Descamps, Laure and Ryckaert, Alexander and De Beer, Thomas}},
issn = {{0378-5173}},
journal = {{INTERNATIONAL JOURNAL OF PHARMACEUTICS}},
keywords = {{Transfer learning,T-shaped partial least squares regression,Machine learning,Scale-up,Tableting}},
language = {{eng}},
pages = {{11}},
title = {{Hybrid modeling of T-shaped partial least squares regression and transfer learning for formulation and manufacturing process development of new drug products}},
url = {{http://doi.org/10.1016/j.ijpharm.2024.124463}},
volume = {{662}},
year = {{2024}},
}
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