The article discusses the significance of Solid Oxide Cells (SOCs) in addressing intermittency challenges associated with renewable power generation. SOCs, functioning as high-temperature electrochemical devices, offer economic benefits for large-scale renewable energy storage and conversion. The flexibility and efficiency of SOCs make them promising in mitigating power generation issues. With the integration of intermittent power sources, SOCs face fluctuating electrical conditions, requiring control and design strategies to ensure safe operation and performance. Researchers are exploring mathematical formulas to quantify characteristic times governing SOC transient behaviors. By identifying key parameters influencing mass transfer rates and ion transport, they aim to enhance the design and control of SOCs, reducing computational and experimental efforts. The study's novel theoretical framework provides insights into the correlation between SOC transient characteristics and various operating parameters. This advancement could lead to more effective utilization of SOCs in renewable energy applications, such as hydrogen and syngas production. The research also highlights the broad implications of utilizing non-dimensional analysis in SOCs, potentially benefiting similar electrochemical cells in different applications.