Proxy-Free Gaussian Splats Deformation with Splat-Based Surface Estimation
Jaeyeong Kim, Seungwoo Yoo, Minhyuk Sung

TL;DR
This paper presents SpLap, a novel proxy-free deformation method for Gaussian splats that constructs a surface-aware splat graph to enable more accurate and topology-preserving deformations, outperforming existing approaches.
Contribution
The paper introduces a surface-aware splat graph and Gaussian kernel adaptation for proxy-free Gaussian splat deformation, improving surface detail preservation and deformation plausibility.
Findings
Outperforms proxy-based and proxy-free baselines on multiple datasets
Preserves surface details and topology during deformation
Demonstrates superior rendering quality after deformation
Abstract
We introduce SpLap, a proxy-free deformation method for Gaussian splats (GS) based on a Laplacian operator computed from our novel surface-aware splat graph. Existing approaches to GS deformation typically rely on deformation proxies such as cages or meshes, but they suffer from dependency on proxy quality and additional computational overhead. An alternative is to directly apply Laplacian-based deformation techniques by treating splats as point clouds. However, this often fail to properly capture surface information due to lack of explicit structure. To address this, we propose a novel method that constructs a surface-aware splat graph, enabling the Laplacian operator derived from it to support more plausible deformations that preserve details and topology. Our key idea is to leverage the spatial arrangement encoded in splats, defining neighboring splats not merely by the distance…
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Taxonomy
Topics3D Shape Modeling and Analysis · Computer Graphics and Visualization Techniques · Interactive and Immersive Displays
