Abstract
This paper presents a comprehensive survey of Python-based libraries for realistic structural simulation, encompassing finite element analysis (FEA), computational mechanics, and structural dynamics. With the growing adoption of Python in engineering and scientific computing, a rich ecosystem of open-source and commercial tools now enables practitioners to model, analyze, and visualize complex structural behavior. We review seven major libraries — OpenSeesPy, FEniCS/DOLFINx, PyNite, SfePy, Calculix with Python bindings, Nastran Python interfaces, and Compadre — evaluating each on the basis of solver capabilities, ease of use, scalability, and application domains. Sample codes are provided for each library to demonstrate their practical use. We also benchmark their performance for common structural problems and discuss emerging trends such as GPU acceleration, machine-learning integration, and cloud-based simulation workflows.