2010
DOI: 10.1109/tap.2010.2078468
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Geometric Algebra of Euclidean 3-Space for Electromagnetic Vector-Sensor Array Processing, Part I: Modeling

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Cited by 20 publications
(22 citation statements)
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“…(3) Since three dipole-loop pairs are spatially separated, the noises on three dipole-loop pairs are uncorrelated to one another. Thus, the additive noise exists only in the real part of the covariance matrix, whereas no additive noise exists in the real part of the covariance matrix (Jiang & Zhang, 2010). Because only information in the imaginary part of the covariance matrix is exploited in the proposed algorithm, it is guaranteed to remove the effect of the additive noise.…”
Section: 1029/2019rs006796mentioning
confidence: 99%
“…(3) Since three dipole-loop pairs are spatially separated, the noises on three dipole-loop pairs are uncorrelated to one another. Thus, the additive noise exists only in the real part of the covariance matrix, whereas no additive noise exists in the real part of the covariance matrix (Jiang & Zhang, 2010). Because only information in the imaginary part of the covariance matrix is exploited in the proposed algorithm, it is guaranteed to remove the effect of the additive noise.…”
Section: 1029/2019rs006796mentioning
confidence: 99%
“…In addition, the signal has an elevation angle θ and an azimuth angle φ. The derivation of (23) is omitted here and the interested reader will find more material in [10]. Considering the polarization information, the aforementioned complex envelope, S E , can be written as where h is the signal polarization vector [16] and can be described by the auxiliary polarization angle (γ) and the polarization phase difference (η), that is, h ¼ cosγ sinγe…”
Section: Manifold Modeling Of Vector Sensors In the Conformal Arraymentioning
confidence: 99%
“…This model was based on biquaternions (quaternions with complex coefficients). Subsequently, Jiang et al introduced geometric algebra into the electromagnetic vector-sensor processing field [10]. However, the model cannot be applied to the conformal array since the pattern is assumed to be a scalar and the same for each element.…”
Section: Introductionmentioning
confidence: 99%
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“…A vector-sensor comprises two or more collocated different types of scalar-sensors and is generally advantageous over a scalar-sensor, eg, for an electromagnetic vectorsensor, it can additionally exploit the polarization difference among the received signals [19]. Traditionally the output of a vector-sensor array is preprocessed to be a long-vector [19][20][21][22][23][24][25][26][27], while several recent approaches utilize hypercomplex (eg, quaternion [18], bicomplex [28], biquaternion [29,30], quad-quaternion [31], Euclidean 3-space [32]) or tensorial (eg, fourth-order interspectral tensor [33]) models. The use of hypercomplex algebra provides a compact way of handling of the recorded data, and demonstrates its unique characteristics in reduced memory consumption and improved robustness to model errors [18].…”
Section: Introductionmentioning
confidence: 99%