Small Aerial Target Detection for Airborne Infrared Detection Systems Using LightGBM and Trajectory Constraints

被引:36
作者
Sun, Xiaoliang [1 ]
Guo, Liangchao [1 ]
Zhang, Wenlong [1 ]
Wang, Zi [1 ]
Yu, Qifeng [1 ]
机构
[1] Natl Univ Def Technol, Coll Aerosp Sci & Engn, Changsha 410073, Peoples R China
基金
中国国家自然科学基金;
关键词
Object detection; Trajectory; Tensors; Imaging; Clutter; Atmospheric modeling; Sun; Airborne; infrared detection system; light gradient boosting model (LightGBM); small aerial target; trajectory constraint; TENSOR MODEL; DIM; APPROXIMATION; KERNEL; GLRT;
D O I
10.1109/JSTARS.2021.3115637
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
Factors, such as rapid relative motion, clutter background, etc., make robust small aerial target detection for airborne infrared detection systems a challenge. Existing methods are facing difficulties when dealing with such cases. We consider that a continuous and smooth trajectory is critical in boosting small infrared aerial target detection performance. A simple and effective small aerial target detection method for airborne infrared detection system using light gradient boosting model (LightGBM) and trajectory constraints is proposed in this article. First, we simply formulate target candidate detection as a binary classification problem. Target candidates in every individual frame are detected via interesting pixel detection and a trained LightGBM model. Then, the local smoothness and global continuous characteristic of the target trajectory are modeled as short-strict and long-loose constraints. The trajectory constraints are used efficiently for detecting the true small infrared aerial targets from numerous target candidates. Experiments on public datasets demonstrate that the proposed method performs better than other existing methods. Furthermore, a public dataset for small aerial target detectionin airborne infrared detection systems is constructed. To the best of our knowledge, this dataset has the largest data scale and richest scene types within this field.
引用
收藏
页码:9959 / 9973
页数:15
相关论文
共 48 条
[31]   Infrared dim and small target detection based on three-dimensional collaborative filtering and spatial inversion modeling [J].
Ren, Xiangyang ;
Wang, Jie ;
Ma, Tianlei ;
Bai, Ke ;
Ge, Mingtao ;
Wang, Yubo .
INFRARED PHYSICS & TECHNOLOGY, 2019, 101 (13-24) :13-24
[32]   Multiframe GLRT-Based Adaptive Detection of Multipixel Targets on a Sea Surface [J].
Rodriguez-Blanco, Marco ;
Golikov, Victor .
IEEE JOURNAL OF SELECTED TOPICS IN APPLIED EARTH OBSERVATIONS AND REMOTE SENSING, 2016, 9 (12) :5506-5512
[33]   Real-time visual enhancement for infrared small dim targets in video [J].
Sun, Xiaoliang ;
Liu, Xiaolin ;
Tang, Zhixuan ;
Long, Gucan ;
Yu, Qifeng .
INFRARED PHYSICS & TECHNOLOGY, 2017, 83 :217-226
[34]   Infrared Dim and Small Target Detection via Multiple Subspace Learning and Spatial-Temporal Patch-Tensor Model [J].
Sun, Yang ;
Yang, Jungang ;
An, Wei .
IEEE TRANSACTIONS ON GEOSCIENCE AND REMOTE SENSING, 2021, 59 (05) :3737-3752
[35]   Infrared Small-Faint Target Detection Using Non-i.i.d. Mixture of Gaussians and Flux Density [J].
Sun, Yang ;
Yang, Jungang ;
Li, Miao ;
An, Wei .
REMOTE SENSING, 2019, 11 (23)
[36]   Infrared small target detection via spatial-temporal infrared patch-tensor model and weighted Schatten p-norm minimization [J].
Sun, Yang ;
Yang, Jungang ;
Li, Miao ;
An, Wei .
INFRARED PHYSICS & TECHNOLOGY, 2019, 102
[37]   Efficient method for multiscale small target detection from a natural scene [J].
Wang, GY ;
Zhang, TX ;
Wei, LG ;
Sang, N .
OPTICAL ENGINEERING, 1996, 35 (03) :761-768
[38]   A rapid detection method for dim moving target in hyperspectral image sequences [J].
Wang, Jinshen ;
Li, Yang .
INFRARED PHYSICS & TECHNOLOGY, 2019, 102
[39]  
Wu Y., 2020, P IEEE INT GEOSC REM, P2795
[40]   Low-Rank Approximation and Multiple Sparse Constraint Modeling for Infrared Low-Flying Fixed-Wing UAV Detection [J].
Xue, Wei ;
Qi, Jiahao ;
Shao, Guoqing ;
Xiao, Zixuan ;
Zhang, Yu ;
Zhong, Ping .
IEEE JOURNAL OF SELECTED TOPICS IN APPLIED EARTH OBSERVATIONS AND REMOTE SENSING, 2021, 14 :4150-4166