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Example 1: Drawing an object from multiple viewpoints
Example 2: Optimizing vertices
Transforming the silhouette of a teapot into a rectangle. The loss function is the difference between the rendered image and the reference image.
Reference image, optimization, and the result.
Example 3: Optimizing textures
Matching the color of a teapot with a reference image.
Reference image, result.
Example 4: Finding camera parameters
The derivative of images with respect to camera pose can be computed through this renderer. In this example the position of the camera is optimized by gradient descent.
From left to right: reference image, initial state, and optimization process.
FAQ
CPU implementation?
Currently, this code has no CPU implementation. Since CPU implementation would be probably too slow for practical usage, we do not plan to support CPU.
If you want to install neural renderer using Python 3, please add ./neural_renderer to $PYTHON_PATH temporarily as mentioned in issue #6. However, since we did not tested our code using Python 3, it might not work well.
Citation
@InProceedings{kato2018renderer
title={Neural 3D Mesh Renderer},
author={Kato, Hiroharu and Ushiku, Yoshitaka and Harada, Tatsuya},
booktitle={The IEEE Conference on Computer Vision and Pattern Recognition (CVPR)},
year={2018}
}
About
"Neural 3D Mesh Renderer" (CVPR 2018) by H. Kato, Y. Ushiku, and T. Harada.