This article provides a comprehensive exploration of kinetic stabilization, a fundamental concept governing the formation and longevity of metastable inorganic and biomolecular structures. Tailored for researchers, scientists, and drug development professionals, it bridges theoretical foundations with practical applications. The scope spans from the core principles differentiating kinetic and thermodynamic control to advanced methodological strategies for stabilizing proteins, biotherapeutics, and inorganic catalysts. It further delves into troubleshooting aggregation and instability issues, optimizing synthesis conditions, and validating stability through modern kinetic modeling and analytical techniques. The content synthesizes recent scientific advances to offer a actionable guide for leveraging kinetic control to develop more effective and stable biomedical products, from complex biologics to innovative drug delivery systems.
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