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Semi-Supervised StyleGAN for Disentanglement Learning
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Disentanglement learning is crucial for obtaining disentangled representations and controllable generation. Current disentanglement methods face several inherent limitations: difficulty with high-resolution images, primarily focusing on learning disentangled representations, and non-identifiability due to the unsupervised setting. To alleviate these limitations, we design new architectures and loss functions based on StyleGAN (Karras et al., 2019), for semi-supervised high-resolution disentanglement learning. We create two complex high-resolution synthetic datasets for systematic testing. We investigate the impact of limited supervision and find that using only 0.25%~2.5% of labeled data is sufficient for good disentanglement on both synthetic and real datasets. We propose new metrics to quantify generator controllability, and observe there may exist a crucial trade-off between disentangled representation learning and controllable generation. We also consider semantic fine-grained image editing to achieve better generalization to unseen images.
Forward citations
Cited by 2 Pith papers
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Symbolic Disentangled Representations for Images
ArSyD learns image representations where each generative factor is a separate hypervector, enabling property editing by vector exchange and dimension-agnostic disentanglement evaluation.
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CtrlNeRF: The Generative Neural Radiation Fields for the Controllable Synthesis of High-fidelity 3D-Aware Images
CtrlNeRF learns a single shared neural radiance field generator that can synthesize controllable, 3D-consistent images of multiple object classes and colors using label-embedded latent codes.
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