In this project, we analyzed the stress and strain distributions in the eye under pressure using Ansys finite element simulation software, with the eye model created in SolidWorks. We simulated contact tonometry by applying various probe forces to measure intraocular pressure (IOP) changes. Five different eye models with axial lengths ranging from 22 to 30 mm were investigated. The process began with creating detailed eye components in SolidWorks, including the aqueous humor, zonular fibers, ciliary body, sclera, cornea, and vitreous body. These components were then imported into Ansys for mesh generation, boundary condition definition, and simulation calculations. Results were analyzed using the Ansys postprocessor and validated against experimental measurements to ensure accuracy. For material properties, all eye tissues were modeled as Mooney–Rivlin hyperelastic materials. During compression, the cornea and sclera were found to be the primary structures absorbing the concentrated loads. The simulation examined three patient positions, namely, standing, side-lying, and supine, combined with eyeball rotations of 15, 30, and 45°. This comprehensive approach allowed for the observation of stress-strain relationships and IOP variations under different probe forces and eye orientations.