DCL-depth: monocular depth estimation network based on iam and depth consistency loss

被引:0
|
作者
Chenggong Han [1 ]
Chen Lv [1 ]
Qiqi Kou [2 ]
He Jiang [1 ]
Deqiang Cheng [1 ]
机构
[1] China University of Mining and Technology,The School of Information and Control Engineering
[2] China University of Mining and Technology,The School of Computer Science and Technology
关键词
Depth estimation; Self-Supervised learning; Image activity measure; Depth consistency loss;
D O I
10.1007/s11042-024-18877-7
中图分类号
学科分类号
摘要
The self-supervised monocular depth estimation algorithm obtains excellent results in outdoor environments. However, traditional self-supervised depth estimation methods often suffer from edge blurring in complex textured regions and the loss of depth information in pixels within weakly-textured areas. To enhance the perception ability of the deep network for complex textured areas and the accuracy of depth estimation in weakly-textured regions, the following methods are proposed in this paper. First of all, the image activity measure (IAM) is used to segment the image features. Based on the multi-directional distribution of image contours, the network's perception ability has been improved, resulting in effective enhancement of depth estimation in complex regions. Furthermore, a new loss function called depth consistency loss (DCL) is proposed, which is based on recursive recurrent networks. The DCL aims to measure the similarity between the output images of the first-order network and the second-order network, and the network's constraint on weak-texture regions has been strengthened. By employing this approach, the accuracy of estimating depth information in weakly-textured regions can be enhanced. Through adequate experimentation on the public indoor datasets, the results show that our network outperforms the compared algorithms in terms of accuracy and visualization of predicted depth.
引用
收藏
页码:4773 / 4787
页数:14
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