Future work will incorporate the volume changes in AM during lithiation to capture the complex interactions between electrochemical and mechanical processes, which are crucial for the overall performance of solid-state batteries. Also, as this work utilized the conventional calendering technique which is uniaxial, our next study will involve the use of isostatic calendering technique to bridge the performance gap in ASSB manufacturing by further optimizing the internal structure of ASSB electrodes, ensuring efficient ion transport and meeting the rigorous demands of industrial applications.