MambaDepth: Enhancing Long-range Dependency for Self-Supervised Fine-Structured Monocular Depth Estimation
Ionu\c{t} Grigore, C\u{a}lin-Adrian Popa

TL;DR
MambaDepth introduces a novel architecture combining Mamba's global context handling with U-Net for improved self-supervised monocular depth estimation, achieving state-of-the-art results and better generalization.
Contribution
The paper presents MambaDepth, a new network architecture that integrates Mamba's efficient long-range dependency modeling into a U-Net framework for depth estimation.
Findings
Outperforms CNN and Transformer models on KITTI dataset
Achieves superior generalization on Make3D and Cityscapes datasets
Demonstrates effective long-range dependency capture in depth maps
Abstract
In the field of self-supervised depth estimation, Convolutional Neural Networks (CNNs) and Transformers have traditionally been dominant. However, both architectures struggle with efficiently handling long-range dependencies due to their local focus or computational demands. To overcome this limitation, we present MambaDepth, a versatile network tailored for self-supervised depth estimation. Drawing inspiration from the strengths of the Mamba architecture, renowned for its adept handling of lengthy sequences and its ability to capture global context efficiently through a State Space Model (SSM), we introduce MambaDepth. This innovative architecture combines the U-Net's effectiveness in self-supervised depth estimation with the advanced capabilities of Mamba. MambaDepth is structured around a purely Mamba-based encoder-decoder framework, incorporating skip connections to maintain spatial…
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Taxonomy
TopicsAdvanced Vision and Imaging · Image Processing Techniques and Applications · Optical measurement and interference techniques
MethodsFocus
