ABSTRACT As environmental protection awareness grows, there is a tremendous increase in demand for biodegradable packaging materials. However, their poor mechanical qualities have significantly hindered the broader use of biodegradable packaging materials in everyday applications. As a result, the problem of inadequate mechanical qualities in real‐world applications of biodegradable packaging materials must be addressed. This is of great significance for promoting the development of biodegradable packaging materials. This paper focuses on the optimization strategies for the mechanical properties of next‐generation biodegradable packaging materials, providing a comprehensive analysis from molecular to macrostructural levels. It also discusses traditional optimization approaches and their limitations. Moreover, an in‐depth examination of the relationship between biodegradability and the mechanical performance of degradable materials is presented. The research additionally investigates the migration and safety of bioactive constituents within biodegradable packaging. Enhancing the mechanical properties of these materials not only addresses a critical scientific challenge but also transforms biodegradable materials from biodegradable concepts into practical commodities capable of meeting the demands of the modern packaging industry. This research is important for more than just technological progress; it is also important for our ability to create a future that is circular, low‐carbon, and economically viable. It represents a vital driver in advancing green transformation and achieving sustainable development.