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Multi-Target DoA Estimation With mmWave MIMO Radar Using Limited Number of Sensors

2025· article· en· 3 citations· W4409659724 on OpenAlex· 10.1109/tvt.2025.3563443

Why is this work in the frame?

A frame that forgets how it found something cannot be audited. These are the routes that admitted this work.

Canadian affiliationAn author listed a Canadian institution. This is the only route the usual frame has.

The three-model screen

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All three models called this out of scope.

stratum: aff_core · design weight: 5595.24 (the sample is stratified; any rate computed without the weight is wrong)
Claude Opus 4.8OUT
genre: empirical
about Canada: no
confidence: high

Signal processing paper on direction-of-arrival estimation with mmWave MIMO radar.

GPT-5.6 (high)OUT
genre: empirical
about Canada: no
confidence: high

It develops and validates a radar signal-processing method, not a method for studying research.

Grok 4.5OUT
genre: empirical
about Canada: no
confidence: high

Signal-processing method for multi-target DoA with mmWave MIMO radar.

Abstract

This paper addresses the problem of estimating incoming signals' direction of arrival (DoA) in multiple-input multiple-output (MIMO) radar systems when the number of reflectors exceeds that of the sensors. Existing methods, such as co-prime and nested arrays, address this limitation by increasing the degree of freedom (DoF) using expanded antenna array geometries. However, these methods introduce practical challenges, including increased array size and added system complexity and cost due to the additional receiver (Rx) front-end modules and analog-to-digital converter (ADC) units required for each antenna element. The proposed method overcomes these limitations and enables the detection of more targets than sensors without necessitating hardware modifications by using a standard uniform linear array (ULA) and enhancing the DoF entirely at the signal processing stage. The proposed method integrates the capabilities of the 2D multiple signal classification (MUSIC) algorithm with the 2D forward-backward spatial smoothing (FBSS) technique to surpass the theoretical limit of the minimum angular resolution. The effectiveness of the proposed method is validated through extensive simulations and real-world measurements. Comparative evaluations against popular DoA estimation techniques further underscore its practical advantages and robustness.

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The record

Venue
IEEE Transactions on Vehicular Technology
Topic
Distributed Sensor Networks and Detection Algorithms
Field
Computer Science
Canadian institutions
University of Alberta
Funders
Keywords
MIMORadarComputer scienceElectronic engineeringRadar trackerRemote sensingReal-time computingEngineeringBeamformingTelecommunications
Has abstract in OpenAlex
yes