The first step in the implementation of OsteoFit involves creating a printed matrix of the model to be used for the production of the composite implant. A clinical dataset utilizing a 3D imaging technique will be chosen and utilized to generate a three-dimensional model incorporating specific characteristics of the composite implant, such as nutrient flow channels and stress transfer features. This computational model will analyze the flow of nutrients using computer fluid dynamics (CFD) and simulate normal stresses using finite elements (FEM). The simulation will be based on the mechanical properties described in the technical characteristics of the bio-compatible resins that will be utilized. The model will be fabricated using bio­ma­te­ri­als to produce a mold with high-​resolution. It will then be assessed for its flow field and stresses, as well as its in vitro bio­com­pat­i­bility. Ultimately, the outcomes of the effort will be disseminated through publications presented at conferences. The bioreactor plays a crucial role in the mechanical and biological maturation of the composite implant.