A Hybrid Modeling Architecture for Dynamic Simulation Platform of Distribution Power Systems

The growing demand for large-scale new energy access highlights the need for a domestically produced and independently operated distribution network simulation platform. However, traditional simulation software has high entry thresholds and operational difficulties, requiring users to write new algorithms for new equipment. Moreover, primary simulation tools are foreign software with poor openness, emphasizing the need for a domestically produced and independently operated platform. This paper proposes a hybrid modeling architecture for a dynamic simulation platform of distribution power systems. The proposed architecture utilizes mathematical equation strings modeling methods and transfer functions modeling for modeling to minimize programming while maintaining scalability. This technology can contribute to the development of a domestically produced and independently operated distribution network simulation platform, particularly in the context of new energy access.