
Vase tall curved with sharp muscle structure squeezed with st... 3D print model
cgtrader
The 3D model is designed specifically for use in virtual reality applications, real-time simulations, 3D printing, and creating immersive visualizations, animations, or architectural interior scenes for computer-generated projects. This 3D printable model is accurately scaled to match real-world dimensions, allowing it to be used seamlessly in any context requiring precision. Initially created using the powerful 3ds Max software (2016 version), it can be easily exported and adapted into various formats suitable for diverse uses. To enhance its level of detail and complexity, the model's geometry can be subdivided multiple times. Initially designed as a single, unified geometric shape, it is perfectly set up to undergo this subdivision process without any complications. At its core, the 3D model has undergone refinement with a TurboSmooth modifier applied twice on top of the mesh, resulting in enhanced resolution and detail. It sits comfortably at the origin of the scene. Visual rendering for the 3D model was conducted using Vray software version 3.0, accompanied by basic yet effective Vray standard materials without any incorporated textures. Notably, it's worth mentioning that illumination settings were left out of the initial 3ds Max setup provided. Dimensions suited for a flawless 3D print come in at approximately 7.44cm wide, with both height and length being identical due to its perfectly symmetrical nature at about 9.972 cm tall, long and high. Lastly, we are more than willing to adapt this model according to specific client requirements if the need arises, merely request us for a tailored modification!
With this file you will be able to print Vase tall curved with sharp muscle structure squeezed with st... 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 tall curved with sharp muscle structure squeezed with st... 3D print model.