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Fourier-based imaging for multistatic radar systems

Author:
Álvarez López, YuriUniovi authority; Rodríguez Vaqueiro, Yolanda; González Valdés, Borja; Mantzavinos, Spiros; Rappaport, Carey M.; Las Heras Andrés, Fernando LuisUniovi authority; Martínez Lorenzo, José ÁngelUniovi authority
Publication date:
2014
Editorial:

IEEE

Publisher version:
http://dx.doi.org/10.1109/TMTT.2014.2332307
Citación:
IEEE Transactions on Microwave Theory and Techniques, 62(8), p. 1798-1810 (2014); doi:10.1109/TMTT.2014.2332307
Descripción física:
p. 1798-1810
Abstract:

Fourier-based methods for monostatic and bistatic setups have been widely used for high-accuracy radar imaging. However, the multistatic configuration has several characteristics that make Fourier processing more challenging: 1) a nonuniform grid in k-space, which requires multidimensional interpolation methods, and 2) image distortion when the incident spherical wave is approximated by a plane wave. This contribution presents a Fourier-based imaging method for multistatic systems, solving the aforementioned limitations: the first, by using k-space partitioning and applying interpolation in each domain; the second, by approximating the spherical wave with multiple plane waves. Both solutions are fully parallelizable, thus allowing calculation time savings. Validation and benchmarking with a synthetic aperture radar backpropagation algorithm have been performed through 2-D and 3-D simulation-based examples. Imaging results from radar measurements have been assessed

Fourier-based methods for monostatic and bistatic setups have been widely used for high-accuracy radar imaging. However, the multistatic configuration has several characteristics that make Fourier processing more challenging: 1) a nonuniform grid in k-space, which requires multidimensional interpolation methods, and 2) image distortion when the incident spherical wave is approximated by a plane wave. This contribution presents a Fourier-based imaging method for multistatic systems, solving the aforementioned limitations: the first, by using k-space partitioning and applying interpolation in each domain; the second, by approximating the spherical wave with multiple plane waves. Both solutions are fully parallelizable, thus allowing calculation time savings. Validation and benchmarking with a synthetic aperture radar backpropagation algorithm have been performed through 2-D and 3-D simulation-based examples. Imaging results from radar measurements have been assessed

URI:
http://hdl.handle.net/10651/29333
ISSN:
0018-9480; 1557-9670
DOI:
10.1109/TMTT.2014.2332307
Patrocinado por:

ALERT, an NSF ERC Program [EEC-9986821]; Ministerio de Economia y Competitividad of Spain [CSD2008-00068, TEC2011-24492/TEC]. Xunta de Galicia under Plan I2C; Science and Tech. Directorate, U.S. Department of Homeland Security [2008-ST-061-ED0001]

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