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Yunxuan Feng

5 accepted papers

2026

Aqua-Splat: Physically-Informed Sonar-Camera Gaussian Splatting for Underwater 3D Reconstruction

ICRA 2026poster

Differentiable Gaussian Splatting (GS) has emerged as a powerful paradigm for scene representation, enabling efficient rendering and real-time editing. However, existing GS-based methods, which rely mainly on clear visual images, perform poorly in underwater environments due to camera distortions su…

Cited by 0SourceScholar
2026

SonarGAN: A Progressive GAN Framework for Sonar Image Denoising under Multi-Type Noises

ICRA 2026poster

Forward-looking sonar is essential for underwater perception especially in turbid waters, yet its images are often strongly degraded by various noises, including speckle, sidelobe, and structural noises, which severely hinder downstream tasks such as underwater reconstruction, positioning, and navig…

Cited by 0Scholar
2026

UTracker: Learning Visuomotor Policies for Underwater Active Target Tracking via Imitation Learning and Diffusion Model

RA-L 2026

Active visual tracking of underwater non-cooperative targets is a challenging task for autonomous underwater vehicles (AUVs) due to the complexity of underwater environments and the unpredictable dynamics of target motion. To address this challenge, this paper proposes UTracker, a novel framework fo

Cited by 2SourcecodeScholar
2025

Aqua-Splat: Physically-Informed Sonar-Camera Gaussian Splatting for Underwater 3D Reconstruction

RA-L 2025

Differentiable Gaussian Splatting (GS) has emerged as a powerful paradigm for scene representation, enabling efficient rendering and real-time editing. However, existing GS-based methods, which rely mainly on clear visual images, perform poorly in underwater environments due to camera distortions su

Cited by 2SourceScholar
2024

Differentiable Space Carving for 3D Reconstruction Using Imaging Sonar

RA-L 2024

Effective 3D reconstruction utilizing imaging sonars is vital for underwater robots, particularly in turbid water conditions. The absence of elevation angles in acoustic echo measurements significantly slows down the Neural Radiance Field (NeRF) method. This is attributed to the differentiable rende

Cited by 12SourceScholar