
doi: 10.21236/ada445553
handle: 1903/5235
Abstract : ESPRIT is a successful algorithm for determining the constant directions of arrival of a set of narrowband signals on an array of sensors. Unfortunately, its computational burden makes it unsuitable for real time processing of signals with time-varying directions of arrival. In this work we develop a new implementation of ESPRIT that has potential for real time processing. It is based on a rank-revealing URV decomposition, rather than the eigendecomposition or singular value decomposition used in previous ESPRIT algorithms. We demonstrate its performance on simulated data representing both constant and time-varying signals. We find that the URV-based ESPRIT algorithm (total least squares variant) is effective for time-varying directions-of- arrival using either rectangular or exponential windowing techniques to diminish the effects of old information.
Systems Integration, computational complexity, signal processing, algorithms, 004
Systems Integration, computational complexity, signal processing, algorithms, 004
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