A gradient-regularized 4D neural field over space and flow rate predicts 3D printed geometries at unseen flow rates more accurately than SIREN and enables per-layer flow rate optimization.
Intuitive Shape Editing in Latent Space
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abstract
The use of autoencoders for shape editing or generation through latent space manipulation suffers from unpredictable changes in the output shape. Our autoencoder-based method enables intuitive shape editing in latent space by disentangling latent sub-spaces into style variables and control points on the surface that can be manipulated independently. The key idea is adding a Lipschitz-type constraint to the loss function, i.e. bounding the change of the output shape proportionally to the change in latent space, leading to interpretable latent space representations. The control points on the surface that are part of the latent code of an object can then be freely moved, allowing for intuitive shape editing directly in latent space. We evaluate our method by comparing to state-of-the-art data-driven shape editing methods. We further demonstrate the expressiveness of our learned latent space by leveraging it for unsupervised part segmentation.
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Regularized interpolation in 4D neural fields enables optimization of 3D printed geometries
A gradient-regularized 4D neural field over space and flow rate predicts 3D printed geometries at unseen flow rates more accurately than SIREN and enables per-layer flow rate optimization.