_{:The structure of NbTi, Nb3Sn, MgB2, Bi-based superconducting materials is complex, and the coordinated deformation uniformity between metals, between metals and powders, and between core wires determines the processing quality and mechanical properties of wires. The dies’ and wires’ structure, processing technology, and deformation conditions are important factors that affect their coordinated deformation behavior. Based on finite element numerical simulation methods, analyzing and evaluating the coordinated deformation behavior of superconducting wires under multiple factors is an important engineering tool that can accurately and intuitively analyze the coordinated rheological behavior during the forming process of multi-layer and multi- filament composite superconducting wires, as well as the stress/strain distribution between composite phases and their interfaces. This review aims to provide an overview of the research progress in finite element simulation of superconducting wire forming processes, summarizing the construction of finite element models, selection of constitutive models, and setting of boundary conditions for superconducting wire forming. At the same time, the effecting mechanism of deformation parameters, die structure, and processing technology on coordinated deformation behavior and recent research progress in multi-scale analysis were discussed.}