
Vase rose spikes flared with smooth cuts eccentric 3D print model
cgtrader
This 3D model is specifically designed to excel in Virtual Reality applications, real-time scenes, architectural visualizations, animations, and any other computer-generated project that demands high-fidelity graphics. The model's detailed dimensions accurately represent its scale within the real world. You can confidently use it for printing purposes thanks to its precise measurements. Initially created with 3ds Max 2016, the model has been successfully exported in a variety of formats, ensuring its compatibility with multiple software applications. To achieve increased resolution and finer details, the model can be subdivided into smaller sections. Crafted as a singular geometry object from inception, this model is prepared for subdivision and refinement. The addition of the Turbosmooth modifier atop its mesh geometry with 2 iterations elevates the model's complexity while maintaining structural integrity. Geometrically centered at the origin of the scene, the model sits poised for effortless manipulation. Visualizations created using Vray 3.0, coupled with a standard material applied simply, showcase the model's textured simplicity – devoid of extraneous elements that could compromise its clean design. Please note that the 3ds Max scene, unfortunately, does not contain an illumination setup to enhance your visuals. Model dimensions for successful printing measure: 159.34 cm, 156.84 cm, and 116.83 cm in height, length, and depth respectively. Upon request, modifications can be made or existing elements modified if necessary. Simply reach out and we will make adjustments as needed to suit your specific needs.
With this file you will be able to print Vase rose spikes flared with smooth cuts eccentric 3D print model with your 3D printer. Click on the button and save the file on your computer to work, edit or customize your design. You can also find more 3D designs for printers on Vase rose spikes flared with smooth cuts eccentric 3D print model.