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Controllable 3D Artistic Style Transfer for Radiance Fields


Alapfogalmak
CoARF enables fine-grained control over 3D scene stylization, including object selection, compositional style transfer, and semantic-aware style transfer, while achieving superior style transfer quality compared to existing methods.
Kivonat
The paper proposes Controllable Artistic Radiance Fields (CoARF), a novel algorithm for controllable 3D scene stylization. CoARF provides the following key capabilities: Object Selection: Allows the user to select which parts of the 3D scene should be stylized while keeping the rest photorealistic. Optimizes the selected area using nearest neighbor feature matching (NNFM) loss, and uses Mean Squared Error (MSE) to preserve the rest of the scene. Compositional Style Transfer: Enables transferring different styles to different parts of the 3D scene by using specific NNFM loss for corresponding mask labels. Semantic-aware Style Transfer: Uses 2D mask labels to match semantic regions between the 3D scene and the provided style image. Proposes a Semantic-aware Nearest Neighbor Feature Matching (SANNFM) algorithm that leverages a weighted sum of VGG feature distance and LSeg feature distance for stylization to improve general style transfer quality. The paper demonstrates that CoARF provides fine-grained control over the style transfer process and yields superior results compared to state-of-the-art algorithms.
Statisztikák
The paper does not provide any specific numerical data or metrics to support the claims. The evaluation is primarily based on qualitative comparisons of the stylized 3D scenes.
Idézetek
"CoARF enables style transfer for specified objects, compositional 3D style transfer and semantic-aware style transfer." "Our semantic-aware 3D style transfer algorithm utilizes a semantic-based nearest neighbor matching technique, which achieves better style transfer quality."

Mélyebb kérdések

How can the proposed CoARF framework be extended to handle dynamic scenes or enable interactive editing of the stylized 3D content?

The CoARF framework can be extended to handle dynamic scenes by incorporating techniques for capturing temporal changes in the scene. One approach could involve integrating motion capture data or video sequences to create a dynamic representation of the scene. By incorporating temporal information into the radiance field prediction process, the framework can generate stylized 3D content that evolves over time, capturing dynamic elements such as moving objects or changing lighting conditions. To enable interactive editing of the stylized 3D content, the CoARF framework can be enhanced with real-time rendering capabilities and user-friendly interfaces. Interactive editing tools could allow users to manipulate the stylization parameters in real-time, providing immediate feedback on the changes made. This could involve adjusting style transfer settings, object selection, or compositional elements through intuitive controls that enable users to interactively explore different artistic styles and visual effects.

What are the potential limitations of the semantic-aware style transfer approach, and how can it be further improved to handle more complex scenes and style images?

One potential limitation of the semantic-aware style transfer approach is the reliance on accurate semantic segmentation masks. In cases where the masks are noisy or imprecise, the style transfer quality may be compromised, leading to artifacts or inconsistencies in the stylized output. Improving the robustness of the semantic segmentation process through advanced algorithms or data augmentation techniques can help address this limitation. To handle more complex scenes and style images, the semantic-aware style transfer approach can be further improved by incorporating multi-level semantic understanding. This could involve hierarchical semantic segmentation to capture fine-grained details and relationships between different objects in the scene. Additionally, leveraging contextual information and scene understanding algorithms can enhance the semantic-aware matching process, enabling more accurate and contextually relevant style transfers.

Could the CoARF framework be adapted to work with other 3D scene representation techniques beyond radiance fields, such as point clouds or meshes?

Yes, the CoARF framework can be adapted to work with other 3D scene representation techniques beyond radiance fields, such as point clouds or meshes. The key lies in modifying the optimization process and loss functions to suit the specific characteristics of the alternative representation methods. For point clouds, the CoARF framework can be extended to predict radiance values at individual points in the cloud, enabling stylization of point-based 3D scenes. By defining appropriate feature extraction methods and loss functions tailored to point cloud data, the framework can achieve controllable style transfer for point cloud representations. Similarly, for mesh-based representations, the CoARF framework can be adapted to predict radiance values at mesh vertices or faces. By incorporating mesh-specific features and constraints into the optimization process, the framework can enable artistic style transfer for mesh-based 3D scenes, allowing users to stylize complex geometric shapes and structures.
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