Existing recycling approaches for conventional LIBs (i.e., pyrometallurgy, hydrometallurgy, and direct recycling) face limitations when applied to industrial-scale operations 1, 5 . These challenges arise in part because conventional LIBs were not originally designed with recyclability in mind , and the current lack of economic feasibility further complicates the issue. The recycling of ASSBs presents even greater challenges due to a multitude of different solid-state electrolyte chemistries. These design differences make conventional LIB recycling methods unsuitable for direct adaptation, requiring the development of new strategies to address the unique challenges posed by ASSBs. Since ASSBs are still under development and have not yet achieved large-scale commercial implementation and availability, there is a valuable opportunity to integrate recycling considerations into the development and design process 1, 5 . This integration is crucial for addressing materials criticality, ensuring responsible resource utilization, minimizing environmental impact, and assessing the recycling compatibility of materials (e.g., solid-state electrolytes in combination with electrode materials).