Abstract
ICH Q12 asserts that science- and risk-based approaches are applicable to stability studies supporting Chemistry, Manufacturing and Controls (CMC) post-approval changes (PAC) to enable more timely implementation; however, no guidance or specific examples are provided to demonstrate how prior knowledge of the product can inform the risk assessment for the proposed change(s). Ten diverse case studies are presented in this manuscript to demonstrate how science- and risk-based stability strategies were used to support drug substance and product CMC PAC and lifecycle management activities. The accumulated stability knowledge held by original manufacturers of marketed products is substantial, and different elements of this knowledge base were used to assess the risks and impact of the proposed changes for confident change management. This paper provides ways to leverage science- and risk-based stability strategies as part of the post-approval change-management risk-mitigation strategy, which may enable a reduced stability data commitment and/or a reduced reporting category for change implementation.
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Acknowledgements
The authors would like to thank Haiyan Grady, Rusty Hertzler, Debra Webb, Shyamala Jayaraman, Karen Sitney, Sebastian Koenig, Ron Ogilvie, Olivier Dirat, Timothy Graul, Paul Gerst, Jonathan Beaman, Joann Parker, Deanna Hurum, Sarina Ma, Eric Gorman, Hong Long, Judy Ostovic, Melissa Morrison, Tiffany Pham, Nora Chew, Anette Skoog, Angelica Wickström, Carolyn Gordon, Greg Carr, Pamela Harrison, Richard Bradley, and Sean Cunningham for their constructive feedback and thoughtful recommendations during their review of this manuscript.
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All authors contributed to the conceptualization, design, case studies, critical review, and approval of this manuscript. Lori McCaig authored the “Introduction” section, Megan McMahon authored the “Regulatory History” section, Steven Nowak authored the Discussion section, and Steven Nowak and Lori McCaig authored the Conclusion.
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McCaig, L., Nowak, S., Abbott, A. et al. Science- and Risk-Based Stability Strategies to Support Product Lifecycle Changes. AAPS J 26, 34 (2024). https://doi.org/10.1208/s12248-024-00903-z
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DOI: https://doi.org/10.1208/s12248-024-00903-z