Bistatic HF Ocean Radar: Errors and Limitations

被引:0
|
作者
Heron, M. L. [1 ]
Barbin, Y. [2 ]
机构
[1] James Cook Univ, Marine Geophys Lab, Townsville, Qld, Australia
[2] CNRS, USTV, UMR6017, LSEET, Toulon, France
来源
关键词
CROSS-SECTIONS; SURFACE;
D O I
暂无
中图分类号
P75 [海洋工程];
学科分类号
0814 ; 081505 ; 0824 ; 082401 ;
摘要
Bistatic HF ocean radars are being proposed as a useful option when planning the layout of coastal stations for mapping sea surface currents. Monostatic HF ocean radar stations measure the components of the vector currents which are radially towards or away from the stations. The combination of the radials from one point on the sea surface to each station can be combined to produce the familiar surface current maps, which are the primary product from HF ocean radars. If the monostatic radars were also operating in bistatic mode, then components of the vector current are measured in the direction of the normal to each ellipse which represents a signal path length from the transmitter to the scattering point (on the ellipse) and on to the receiver. Stylised pictures of this geometry show that these surface current components are directed towards the general area of the midpoint between the transmitter and the receiver, and can be useful in reducing errors by providing extra, redundant, information in the calculation of the re-constituted vectors. Errors in determining the location of the scattering point in bistatic radar observations in some circumstances lead to degradation of the accuracy of the currents which can be detected. In this paper we consider two effects: the effect of receiver beamwidth; and the effect of receiver bandwidth.
引用
收藏
页码:2665 / +
页数:2
相关论文
共 50 条
  • [1] Model of shore-to-air bistatic HF radar for ocean observation
    Zhao, Chen
    Chen, Zezong
    OCEANS 2018 MTS/IEEE CHARLESTON, 2018,
  • [2] Bistatic Observations of the Ocean Surface with HF Radar, Satellite and Airborne Receivers
    Bernhardt, Paul A.
    Siefring, Carl L.
    Briczinski, Stanley C.
    Vierinen, Juha
    Miller, Ethan
    Howarth, Andrew
    James, H. Gordon
    Blincoe, Eugene
    OCEANS 2017 - ANCHORAGE, 2017,
  • [3] Measuring the Directional Ocean Spectrum from Simulated Bistatic HF Radar Data
    Hardman, Rachael L.
    Wyatt, Lucy R.
    Engleback, Charles C.
    REMOTE SENSING, 2020, 12 (02)
  • [4] Bistatic and Stereoscopic Configurations for HF Radar
    Anderson, Stuart
    REMOTE SENSING, 2020, 12 (04)
  • [5] Simulation studies of errors in HF radar ocean surface current measurements
    Laws, KE
    Fernandez, DM
    Paduan, JD
    Teague, CC
    Vesecky, JF
    IGARSS '98 - 1998 INTERNATIONAL GEOSCIENCE AND REMOTE SENSING SYMPOSIUM, PROCEEDINGS VOLS 1-5: SENSING AND MANAGING THE ENVIRONMENT, 1998, : 198 - 200
  • [6] The Case for Bistatic HF Surface Wave Radar
    Marrone, Peter
    Edwards, Peter
    2008 INTERNATIONAL CONFERENCE ON RADAR, VOLS 1 AND 2, 2008, : 684 - 689
  • [7] A bistatic HF radar for surface current mapping
    Yang, Jing
    Wen, Biyang
    Zhang, Chong
    Huang, Xiaojing
    Yan, Zhisheng
    Shen, Wei
    IEICE ELECTRONICS EXPRESS, 2010, 7 (19): : 1435 - 1440
  • [8] Ocean Surface Cross Section for Bistatic HF Radar Incorporating a Six DOF Oscillation Motion Model
    Yao, Guowei
    Xie, Junhao
    Huang, Weimin
    REMOTE SENSING, 2019, 11 (23)
  • [9] Investigations with SECAR - a bistatic HF surface wave radar
    Anderson, SJ
    Edwards, PJ
    Marrone, P
    Abramovich, YI
    2003 PROCEEDINGS OF THE INTERNATIONAL CONFERENCE ON RADAR, 2003, : 717 - 722
  • [10] Investigations with SECAR - A bistatic HF surface wave radar
    Anderson, S.J.
    Edwards, P.J.
    Marrone, P.
    Abramovich, Y.I.
    REE, Revue de L'Electricite et de L'Electronique, 2004, 2004 (03): : 47 - 53