
Vase squeezed and bent hexagon with horizontal wavy inverted ... 3D print model
cgtrader
* This 3D model is perfectly suited for use in VR, real-time applications, 3D printing, architectural interior scenes, visualizations, animations, and any other computer-generated project that demands precision. * The model's 3D printable format ensures that it retains its correct real-world scale, guaranteeing accuracy and authenticity. * Initially designed using the industry-standard software, 3ds Max 2016, the model has been expertly exported into various formats to ensure seamless compatibility across multiple platforms. * By subdividing the model further, users can significantly enhance its resolution, allowing for even greater precision and detail. * As a single, unified geometry object, this model is primed for subdivision and refinement, offering limitless possibilities for artistic expression and creativity. * With a TurboSmooth modifier expertly applied on top of its robust mesh geometry, achieving a smooth, high-definition appearance is within easy reach - just 2 iterations are required to achieve maximum visual impact. * Placed conveniently at the scene's origin point, this model presents users with ultimate flexibility and control over their creative process. * Leveraging the industry-leading Vray 3.0 rendering engine and the simplicity of Vray standard materials, without relying on textures or unnecessary embellishments, ensures a swift and efficient rendering process that gets results fast. * Note: The accompanying 3ds Max scene does not include any illumination settings, allowing users to create their own customized lighting scheme to suit their artistic vision.
With this file you will be able to print Vase squeezed and bent hexagon with horizontal wavy inverted ... 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 and bent hexagon with horizontal wavy inverted ... 3D print model.