Subspace-based direction-of-arrival estimation for more sources than sensors using planar arrays
Michael Rübsamen, Alex B. Gershman
Abstract
Michael Rübsamen, Alex B. Gershman
Abstract
We propose a novel subspace-based direction-of-arrival (DOA) estimation method and an associated planar array geometry optimization technique. The proposed DOA estimation approach allows to estimate the DOAs of more sources than sensors and to resolve manifold ambiguities in the case of uncorrelated signals. It is related to the covariance augmentation (CA) technique, but in contrast to the CA technique, it can be applied to non-uniform planar array geometries.
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We propose a novel subspace-based direction-of-arrival (DOA) estimation method and an associated planar array geometry optimization technique. The proposed DOA estimation approach allows to estimate the DOAs of more sources than sensors and to resolve manifold ambiguities in the case of uncorrelated signals. It is related to the covariance augmentation (CA) technique, but in contrast to the CA technique, it can be applied to non-uniform planar array geometries.
Key concepts: Direction of arrival, Planar array, Planar, Uncorrelated, Subspace topology, Sensor array, Manifold (fluid mechanics), Computer science