Date of Completion
1-31-2020
Embargo Period
1-30-2022
Keywords
Pharmaceutical Dosage, 3D prnting, Tablet dosage form, Inkjet-based, Binder-jet
Major Advisor
Bodhi Chaudhuri
Associate Advisor
Diane Burgess
Associate Advisor
Robin Bogner
Associate Advisor
Xiuling Lu
Associate Advisor
Anson Ma
Field of Study
Pharmaceutical Science
Degree
Doctor of Philosophy
Open Access
Campus Access
Abstract
Binder-jet 3D printing (BJ-3DP) process has been extensively used in rapid prototyping, mostly in the ceramic industry until 2015, when the first FDA approved 3D printed tablet Spritam® became commercially available. Since then, the interest in the pharmaceutical dosage development using BJ-3DP has amplified, which obliges to improve fundamental understanding of the printing process to optimize dosage development and manufacturing process. This study provides a basic understanding of the overall printing process along with the necessary considerations one needs to make while manufacturing a formulation dosage form using BJ-3DP printing process. This research implements a process to streamline the pre-formulation study phase of 3D printed dosage development. This study explores the critical effect of the raw materials onto the printed dosage form. This work also implements a screening step (drop test) to gain prior knowledge about the raw materials compatibility in the manufacturing process. This research investigates the critical aspects one needs to consider in the formulation development phase from a pharmaceutical stability perspective. Finally, the statistical model used in this study reveals the correlation between the screening step and raw materials attributes onto the printed dosage product. The result achieved from this work shows the governing factors responsible for the critical attributes of the printed tablet and the printing process, which will potentially be helpful in formulation development using BJ-3DP for future interested researchers/organizations.
Recommended Citation
Sen, Koyel, "A Mechanistic Understanding of Binder-jet Based 3D Printing Process" (2020). Doctoral Dissertations. 2455.
https://digitalcommons.lib.uconn.edu/dissertations/2455