基于非合作雷达辐射源的无源雷达技术综述

Abstract

Abstract: The technology of the passive radar based on non-cooperative radar illuminator is summarized,and the research history and current situation of this field are introduced,then the primary principle of a non-cooperative bistatic radar system is analyzed.The main content contains the basic geometrical relationship,signal energy relationship,receiver structure,parameter measurement and target location method.Finally,several key techniques of the system,such as the signal analysis and optimal selection of radar illuminator,system synchronization,direct-path reference signal reconstruction,weak target signal detection and parameter estimation,and target tracking,data fusion and target recognition,are also analyzed.

CLC Number:

TN953

SONG Jie, HE You, CAI Fu-qing, TANG Xiao-ming. Overview of passive radar technology based on non-cooperative radar illuminator[J]. Journal of Systems Engineering and Electronics, 2009, 31(9): 2151-2156,2180.

References

[1] 杨振起,张永顺,骆永军.双(多)基地雷达系统[M].北京:国防工业出版社,1999:1-12.
[2] 唐小明,何友,夏明革.基于机会发射的无源雷达系统发展评述[J].现代雷达.2002,24(2):1-6.
[3] 曲长文,何友.基于电视或调频广播的非合作式双多基地雷达及关键技术[J].现代雷达,2001,23(1):19-23.
[4] Schoenenberger J G,Forrest J R.Principles of independent receivers for use with co-operative radar transmitters[J].The Radaio and Electronic Engineer,1982,52(2):93-101.
[5] Griffiths H D,Carter S M.Provision of moving target indication in an independent bistatic radar receiver[J].The Radio and Electronic Engineer,1984,54(8):336-342.
[6] Yamano.Bistatie coherent radar receiving system[P].USA 4644356,1984.
[7] Lightfoot F M.Apparatus and methods for locating a target utilizing signals generated from a non-cooperative source[P].USA 474692.1985.
[8] Thompson E C.Bistatic radar noncooperative illumination synchronization techniques[C]//IEEE Radar Conference,1989:29-34.
[9] Hawkins J M.An opportunistic bistatic radar[C]//IEEE Radar Conference,1997:318-322.
[10] 李四新.英国在潜水艇上部署双基地雷达[J].现代雷达,1999.12(2):13.
[11] Thomas Daniel D.Synchronization of noncooperative bistatic radar receivers[D].Syracuse University,1999.
[12] 王俊,保铮,张守宏.无源探测与跟踪雷达系统技术及其发展[J].雷达科学与技术,2004,2(3):129-135.
[13] Griffiths H D.Bistatic denial using spatial-temporal coding[R].ADA389603,2001.
[14] Antonik P A,Griffiths Hugh,Donald D W,et al.Novel diverse waveforms[R].ADA393076,2001.
[15] Griffiths H D,Wicks M C,Weiner D,et al.Denial of bistatic hosting by spatial-temporal waveform design[C]//IEEE Proc.of Radar Sonar Navig.,2005,152(2):81-88.
[16] Weedon R J.Study into ESM and PCR convergence[C]//1st EMRS DTC Technical Conference,Edinburgh,2004:A16.
[17] Weedon R J,Fisher J,Hill D S.Study into ESM and PCR convergence:year two[C]//EMRS DTC Technical Conference,Edinburgh,2005:A9.
[18] Overrein Y,Olsen K E.Geometrical and signal processing aspects using a biatatic hitchhiking radar system[C]//IEEE Radar Conference,2005:235-238.
[19] Johnsen T,Olsen K E.Hitchhiking bistatic radar:principles,processing and experimental findings[C]//IEEE Radar Conference,2007:518-523.
[20] Bovey C K,Home C P.Synchronization aspects for bistatic radars[C]//IEEE International Conference,1987:22-25.
[21] Schocnenberger J G,Forrest J R.Active array receiver studies for bistatic/multistatic radar[C]//IEEE International Radar Conference,1982:174-178.
[22] 赵洪立.基于调频广播的无源雷达系统中微弱目标检测技术的研究[D].西安:西安电子科技大学,2006.
[23] Knapp C H,Carter G C.The generalized correlation method for estimation of time delay[J].IEEE Trans.on ASSP,1976,24(10):320-327.
[24] Tugnait J K.On time delay estimation with unknown spatially correlated Gaussian noise using fourth-order cumulants and cross cumulants[J].IEEE Trans.on SP,1991,39(8):1258-1267.
[25] Gardner W A.The spectral correlation theory of cyclostationary time-series[J].Signal Processing,1986,11(4):13-36.
[26] Schmidt R O.Multiple emitter location and signal parameter estimation[J].IEEE Trans.on AP,1986,34(3):276-280.
[27] Roy R,Kailath T.ESPRIT-estimation of signal parameters via rotational invariance techniques[J].IEEE Trans.on ASSP,1989,37(7):984-995.
[28] Rao B D,Hari K V.Performance analysis of Root-MUSIC[J].IEEE Trans.on ASSP,1989,37(12):1939-1949.
[29] Skolnik M I.An analysis of bistatic radar[J].IEEE Trans.on Aerospace and Navigational Electronics,1961,8(2):19-27.
[30] Poullin D,Lesturgie M.Multistatic radar using noncooperative transmitters[C]//Proc,of International Conference on Radar,Paris,1994:370-375.
[31] Howland P E.Television-based bistatic radar[D].University of Birmingham,UK,1999.
[32] 何友,王国宏,彭应宁.多传感器信息融合及应用[M].北京:电子工业出版社,2000.
[33] Lanterman A D.Tracking and recognition of airborne targets via commercial television and FM radio signals[C]//Proc.of SPIE Acquisition,Tracking,and Pointing,1999:189-198.
[34] Ogrodnik R F.Fusion techbroad area surveillance exploiting ambient signals via coherent techniques[C]//Proc,of IEEE IC on Multisensor Fusion and Integration for Intelligent Systems,1994:421-429.
[35] 关键.多传感器分布式恒虚警检测算法研究[D].北京:清华大学,2000.different types of air motors,in thirteenth international conference on automation and computing(ICAC)[M].Staffordshire University,England,2007.

Overview of passive radar technology based on non-cooperative radar illuminator

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