The simulation results elucidate the evolution of the microstructures of AMs (AM1 and AM2) at various stages of the solid-state battery manufacturing process, specifically during slurry preparation, drying, and calendering, as depicted in Figure . Initially, in the slurry stage, the AM and SE are predominantly coated with CBD. These CBD particles exhibit substantial overlap, effectively representing the continuum nature of the solvent matrix. During the drying stage, as the solvent evaporates, the microstructure undergoes significant changes. The CBD particles, originally dispersed within the solvent, shrink to a size of approximately 2.6 µm. This shrinkage represents solvent loss and densification of the microstructure, leading to a more compact arrangement of the particles. In the final calendering stage, the dried microstructures are compressed to achieve the desired density and surface smoothness. This pressing aligns and compacts the particles to mimic the calendered state. The simulations provide detailed insights into the morphological transformations that occur at each stage, highlighting the critical role of CBD particle behavior and solvent dynamics in determining the final microstructural properties of the solid-state battery components.