Narrow top vase helix with entangled lattice 3D print model

Narrow top vase helix with entangled lattice 3D print model

cgtrader

3D Model Suitable for VR Applications and Real-Time Environments. This high-fidelity 3D model is designed to seamlessly integrate with various computer-generated projects, including real-time visualizations, architectural renderings, and animations. Its scalability makes it perfect for a range of CG endeavors. Originally created in 2016 using 3ds Max software, the model has been expertly exported into other formats for increased versatility. Due to its intelligent design, this model can be easily subdivided to achieve even higher levels of detail and precision. A key feature of this 3D model is that it is rendered as a single, cohesive object, primed for subdivision without compromising structural integrity. To further enhance visual quality, a TurboSmooth modifier has been applied to the mesh geometry, with two iterations for optimal results. The origin of the scene remains centered at the heart of this model, ensuring seamless integration with various CG applications. For added realism, Vray 3.0 software has been used to generate a standard material with no textures involved. For optimal viewing and visualization, note that illumination setup is not included within the provided 3ds Max scene file. Instead, users can easily add their own lighting setups to achieve desired effects. Dimensions for 3D printing are as follows: height: 899.4 cm; width: 897.3 cm; depth: 2043.3 cm. To accommodate custom needs or specific requirements, we offer flexible modification services. Feel free to contact us for assistance in refining this model or requesting any necessary adjustments.

Download Model from cgtrader

With this file you will be able to print Narrow top vase helix with entangled lattice 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 Narrow top vase helix with entangled lattice 3D print model.