To speed up the process of commercialization of the SSBs, modeling can be employed as a fast and more accessible testing strategy, allowing for a wide spectrum of different assumptions to be explored in a relatively short time in contrast to slow and resource intensive experiments. It can provide insights to improve every step in the process. Moreover, these models can be used in the advanced analysis and process control of the system by giving real-time feedback and tuning on the fly manufacturing parameters, with the use of the appropriate sensors in the manufacturing line. On the other hand, the manufacturing process of battery electrodes is highly complex and convoluted since it involves a series of sequential steps impacted by a wide range of parameters. Deconvoluting the influence of each of the manufacturing parameters on the output electrode microstructure and the resulting electrochemistry is extremely complicated. Three-dimensional (3D) models, developed by the ERC-funded ARTISTIC project, are used as a powerful tool to study the influence of each parameter in isolation and their combination on the product electrode microstructure and its electrochemical performance. These tools are freely available online with user-friendly interface to give the ability to run simulations for users of all backgrounds. 3D physical models of LIB electrode manufacturing have proven to show good compromise between throughput and accuracy. Surprisingly, the available modeling literature on SSBs is less extensive, with a very limited number of studies focusing on manufacturing parameters. LIB physicsbased 3D models provide precise control for each of the manufacturing parameters unlocking a high capability to understand and examine the effect of the manufacturing on the microstructure of the electrode. The output microstructure can be embedded into heterogeneous 4D (time dependent 3D) electrochemical that links all of the manufacturing, microstructure and performance by ultimately predicting the experimental discharge curves from the initial set of manufacturing parameters. Within the frame of the ARTISTIC project, our group has set up a series of LIB models attributed to different steps of the manufacturing process starting from the slurry phase, its drying, and the dry electrode calendering and electrolyte filling. All these models can be injected directly into 4D electrochemical models to simulate the energy discharge (current potential curves) and electrochemical impedance spectroscopy for the resistance and conductivity of the electrode.