Christian Louboutin Red Alligator Shoes and Bag Gift Packaging 3D model
cgtrader
Pair of Christian Louboutin famous So Kate 120 mm Pumps and Small Elisa Top Handle Bag in red alligator embossed leather, packaged in brand boxes and paper bags. The So Kate pump is an iconic model from the Maison Christian Louboutin, exuding sophistication with its charming design. Sitting atop a slender 120 mm heel, this calfskin shoe pays homage to Kate Moss while enhancing the foot with its sophisticated lines and wide low cut. The Alligator texture and Loubi finish give it an elegant style. The Elisa small handbag stands out for its elegant and modern lines, showcasing the know-how of Maison Christian Louboutin. The Egyptian inspiration of the creator is also evident in its tone-on-tone monogrammed cartouche clasp. Features include a leather strap, detachable strap for multiple carrying modes, iconic red leather design with alligator embossing, 6 card slots, 1 zipped pocket, and 2 compartments. Product IDs: Shoes - 3200070R251, Bag - 3205043R297 A high-quality, fully prepared 3D model is ready for use in close-up renders. The model is in real-world scale, with everything named and grouped according to logic. Detailed materials and textures are included, along with proper names. The Turbosmooth modifier has been left open in the stack, while everything else is collapsed to editable poly. No other geometry, cameras, or lights are present in the scene. The model has been saved as 3Ds Max 2014 (.3DS, .FBX, and .OBJ) and rendered with VRay. An archive containing a 3Ds Max file, .obj, .fbx, .3ds, folder with textures (mostly 2k), and preview renders is included. This model is expected to be useful.
With this file you will be able to print Christian Louboutin Red Alligator Shoes and Bag Gift Packaging 3D 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 Christian Louboutin Red Alligator Shoes and Bag Gift Packaging 3D model.