Multi-Target Location and Doppler Estimation in Multistatic Automotive Radar Applications

被引:4
作者
Moussa, Ali [1 ]
Liu, Wei [2 ]
Zhang, Yimin D. [3 ]
Greco, Maria S. [4 ]
机构
[1] Univ Sheffield, Dept Elect & Elect Engn, Sheffield S10 2TN, England
[2] Queen Marry Univ London, Sch Elect Engn & Comp Sci, London E1 4NS, England
[3] Temple Univ, Dept Elect & Comp Engn, Philadelphia, PA 19122 USA
[4] Univ Pisa, Dipartimento Ingn Informaz, I-56126 Pisa, Italy
来源
IEEE TRANSACTIONS ON RADAR SYSTEMS | 2024年 / 2卷
基金
英国工程与自然科学研究理事会; 美国国家科学基金会;
关键词
Sensors; Radar; Estimation; Automotive engineering; Receivers; Doppler effect; Chirp; Automotive radar; multistatic; radar signal processing; sparse representation; location and Doppler estimation; group sparsity; SIGNAL-PROCESSING RESEARCH; PAIR-MATCHING METHOD; ANGLE-OF-ARRIVAL; JOINT RADAR; MIMO RADAR; THE-ART; LOCALIZATION; RECONSTRUCTION; ALGORITHMS; SYSTEMS;
D O I
10.1109/TRS.2024.3362706
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
In this paper, we develop a multistatic automotive radar scheme for enhanced localization and Doppler estimation of multiple targets exploiting cooperative roadside sensors. As the range between a target and a sensing vehicle cannot be directly measured, intermediate calculations are required to convert the measured bistatic range to the radial range of the targets of interest. Using the Fourier transform, the range resolution is thereby limited by the Rayleigh criterion applied to the total bistatic range. Developing a sparse representation for the bistatic automotive scenario can not only bypass the intermediate calculation step, but also add super-resolution sensing capability beyond the Rayleigh limit. As this application can benefit from the communication capabilities of the fifth-generation (5G) new radio (NR), multiple cooperative roadside transmitters are employed along a smart highway, forming a multistatic configuration. In order to process multiple realisations of the reflected signals simultaneously, we propose a solution employing the concept of group sparsity. Then, we show through computer simulations that, for some added complexity, better positioning performance can be achieved when compared to the state-of-art.
引用
收藏
页码:215 / 225
页数:11
相关论文
共 55 条
[1]  
[Anonymous], 2002, Optimum Array Processing: Part IV of Detection, Estimation, and Modulation Theory
[2]   A New Multistatic FMCW Radar Architecture by Over-the-Air Deramping [J].
Ash, Matthew ;
Ritchie, Matthew ;
Chetty, Kevin ;
Brennan, Paul V. .
IEEE SENSORS JOURNAL, 2015, 15 (12) :7045-7053
[3]  
Bar-Shalom O, 2020, 2020 IEEE INTERNATIONAL RADAR CONFERENCE (RADAR), P500, DOI [10.1109/RADAR42522.2020.9114861, 10.1109/radar42522.2020.9114861]
[4]  
Beasley P. J., 2022, IET Conference Proceedings, P429, DOI 10.1049/icp.2022.2356
[5]  
Candes E. J., 2006, Proc. Int. Congr. Math., P1433, DOI DOI 10.4171/022-3/69
[6]   MIMO Radar Ambiguity Properties and Optimization Using Frequency-Hopping Waveforms [J].
Chen, Chun-Yang ;
Vaidyanathan, P. P. .
IEEE TRANSACTIONS ON SIGNAL PROCESSING, 2008, 56 (12) :5926-5936
[7]  
Chernyak V., 1998, Multistatic radars and Multiradar Systems
[8]   A Multistage Processing Algorithm for Disturbance Removal and Target Detection in Passive Bistatic Radar [J].
Colone, F. ;
O'Hagan, D. W. ;
Lombardo, P. ;
Baker, C. J. .
IEEE TRANSACTIONS ON AEROSPACE AND ELECTRONIC SYSTEMS, 2009, 45 (02) :698-722
[9]  
Davis M. E., 2007, Advances in Bistatic Radar, V2
[10]  
Dickmann J, 2016, IEEE RAD CONF, P782