During this period, contributed to the CliMA/Oceananigans.jl repository by developing the SphericalCoriolis feature, which supports both hydrostatic and nonhydrostatic formulations for Coriolis force representation on a sphere. This work replaced the previous HydrostaticSphericalCoriolis structure, introducing a more flexible and accurate approach to modeling Coriolis effects in ocean simulations. The implementation involved creating a new SphericalCoriolis type and integrating multiple schemes to enhance model realism and maintainability. Leveraging skills in numerical modeling, scientific computing, and simulation development, and utilizing the Julia programming language, the work broadened experimentation possibilities and improved the fidelity of spherical oceanographic simulations.