To avoid the necessity of building entirely new plants for SSB production, it is essential to qualify and adapt current technologies to accommodate the properties of SSB materials and the requirements of novel components. The feasibility of the slurry-based processing method for SSB cathodes has been demonstrated on a laboratory scale. - , Singer et al. investigate the viability of various conditions for slurry-based processes in the production of sulfide-based SSB composite cathodes. The study examines how binder and solid content in the slurry impact viscosities, sheet thicknesses, and areal weights. Additionally, they address geometric parameters and demonstrate how material properties can be adjusted to achieve high throughput in pilot-scale coating processes. However, many aspects of large-scale fabrication remain unknown. Among the various steps involved in manufacturing conventional lithium-ion batteries (LIBs), the coating process is particularly challenging and significantly impacts the quality of large-scale components. Presently, this process is predominantly executed using wet coating techniques. Roll-to-roll doctor blading and slot die coating at elevated velocities are commonly employed for high-precision production lines. These processes are wellunderstood and the quality standards for the product, as well as the respective process parameter windows, are established. 3D physical models of LIB electrode manufacturing have demonstrated a commendable compromise between throughput and accuracy. However, the extant modeling literature on SSBs is comparatively limited, with scant studies focusing on manufacturing. LIB physics-based 3D models afford precise control over each manufacturing parameter, enabling a robust capability to comprehend and scrutinize manufacturing effects on the electrode's microstructure. We have devised a series of SSB and LIB models ascribed to distinct steps of the manufacturing process, commencing from the slurry phase, through drying, and electrode calendering. The culmination of this model chain can be seamlessly integrated into 4D electrochemical models to simulate energy discharge and electrochemical impedance spectroscopy (EIS) linking manufacturing, microstructure, and performance and ultimately predicting experimental discharge profiles from the initial set of manufacturing parameters. This study explores for the first time a dual experimental and modeling approach to investigate multiple slurry-based manufacturing parameters' influence on SSB cathode characteristics.