Vase twisted squeezed and bent quadratic with bubble grid lat... 3D print model

Vase twisted squeezed and bent quadratic with bubble grid lat... 3D print model

cgtrader

3D Model for VR and Real-Time Applications Suitable for 3D Printing and Visualizations. This model is designed to excel in real-time applications, virtual reality scenes, architectural interior visualizations, animations, and any other computer-generated project. Its 3D printability and accurate real-world scale make it a versatile asset for creatives. The original creation of this model was made possible using 3ds Max 2016, and subsequent exports have ensured compatibility with multiple formats. To further enhance its detail, the model can be subdivided into smaller elements, effectively increasing its resolution without sacrificing overall quality. A single, cohesive geometry object makes up this model, ready for subdivision or further refinement. To refine its appearance, a Turbosmooth modifier is applied atop the mesh, using 2 iterations to achieve optimal results. By design, this model's pivot point is set at the origin of the scene, ensuring flexibility and versatility during animation and visualization workflows. Renderings of the model are created with Vray 3.0 and utilize simple Vray standard materials, complete with uncomplicated texture schemes. The illumination setup within the 3ds Max scene has not been included to prevent any potential inconsistencies or issues with external render settings. Model specifications for 3D printing: Dimensions – Length (11,099 cm), Width (11,078 cm), Height (23.0 cm). Feel free to request adjustments or modifications as needed.

Download Model from cgtrader

With this file you will be able to print Vase twisted squeezed and bent quadratic with bubble grid lat... 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 twisted squeezed and bent quadratic with bubble grid lat... 3D print model.