Vase squeezed hexagon with diagonal grid bulges 3D print model
cgtrader
This highly detailed 3D model is perfectly suited for virtual reality, real-time applications, 3D printing, architectural interior scenes, visualizations, animations, or any other complex CG project. Key Features: * This model can be printed with precision using a 3D printer. * It boasts a correct scale that matches the real world. Initially designed with 3ds Max 2016, this model has been successfully exported to various formats for seamless use across multiple platforms. For optimal results, this model can be further subdivided to significantly boost its resolution. The entire model exists as one single, solid geometry object, prepared specifically for subdivision to maximize flexibility and control. Moreover, it boasts the Turbosmooth modifier positioned directly atop its mesh geometry, with a total of two iterations executed to refine its form. Positioned precisely at the center of its scene's origin, this model offers complete balance and stability for enhanced results in your 3D renderings. Its Vray 3.0 rendering has been performed utilizing only the standard material from Vray, devoid of any intricate textures or details. Please note that the provided 3ds Max scene does not contain the illumination settings, which you can adjust as per your specific needs and preferences. For all print dimensions pertaining to this 3D model, please refer to the following specs: Height-884.4cm; Width-916.4cm; Depth-2301.8cm. Additionally, note that modifications to this model can be accommodated upon request. If you require a modified version of the existing 3D model, simply contact us to discuss your requirements in further detail.
With this file you will be able to print Vase squeezed hexagon with diagonal grid bulges 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 squeezed hexagon with diagonal grid bulges 3D print model.