Adaptive airborne MTI with two-dimensional motion compensation

Klemm, R.

doi:10.1049/ip-f-2.1991.0074

Cited by 8 publications

(1 citation statement)

References 3 publications

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“…Adaptive weights are chosen to maximize the output signal to interference -plus -noise ratio, but it is shown [4] that for Gaussian interference (cluter, thermal noise and jamming) optimal ASTP maximizes the probability of detection. A large number of papers have been published on the topic of ASTP for clutter rejection [1,[6][7][8]. Also, many literatures have been published on the ASTP topic, e.g.…”

Section: Introductionmentioning

confidence: 99%

A Novel Adaptive Space - Time Technique of Filtering for Interference Suppression in Phased Array Airborne Radar Systems

Ghouz¹,

Kamal²,

Hanafy³

et al. 2001

International Conference on Aerospace Sciences and Aviation Tec

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This work introduces a novel adaptive technique of filtering for solving the problem of interference suppression in phased array airborne radar systems. In this adaptive process, effects of the interference are suppressed (or minimized) according to a specific set of controlling parameters. This includes the target doppler shift and the interference spatial distributions. The proposed technique is referred to as adaptive space-time filter. Performance of our novel adaptive filter is investigated, evaluated, and compared to the known adaptive filter proposed by H. Ghouz in 1990 [1]. Results of simulation indicate that with adequate filter's complexity, excellent improvement in the signal-to-interference-plus-noise ratio is obtained at the filter's output. In addition, our filter has two main advantages over the one reported in [1]. First, our filter is simple and easy to implement. Second, a minimum total computational time of the adaptation process is required. This includes estimation of the interference space-time covariance matrix and updating the filter's weights as well as the required processing time. Finally, the presented filter is a robust solution to the problem of interference challenging the airborne radar systems, in particular, the strong reflection from the ground clutter sources.

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Section: Introductionmentioning

confidence: 99%

A Novel Adaptive Space - Time Technique of Filtering for Interference Suppression in Phased Array Airborne Radar Systems

Ghouz¹,

Kamal²,

Hanafy³

et al. 2001

International Conference on Aerospace Sciences and Aviation Tec

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A 2-D Joint Process Lattice Filter for Adaptive Change Detection in Image Sequence

Youlal¹,

Janati²,

Najim³

1992

Signal Processing

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Clutter calibration for space-time airborne MTI radars

Chevalier¹,

Savy²,

Durniez³

Proceedings of International Radar Conference

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For slow target detection with airborne array radars, the ground clutter Doppler spreading due to the platform movement is a limiting factor, especially for long wavelength radars. In this paper, it will be shown that two procedures for slow target detection (Doppler-angle imaging or space-time processing, and movement compensation) are equivalent [2], [3], and that an original real-time procedure for antenna array calibration using clutter returns can be combined with these detection techniques to increase subclutter visibility in presence of high clutter returns.

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Adaptive airborne MTI with two-dimensional motion compensation

Cited by 8 publications

References 3 publications

A Novel Adaptive Space - Time Technique of Filtering for Interference Suppression in Phased Array Airborne Radar Systems

A Novel Adaptive Space - Time Technique of Filtering for Interference Suppression in Phased Array Airborne Radar Systems

A 2-D Joint Process Lattice Filter for Adaptive Change Detection in Image Sequence

Clutter calibration for space-time airborne MTI radars

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