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An emerging application of wireless sensing is locating and tracking humans in their living environments, a primitive that can be leveraged in both daily life applications and emergency situations. However, most proposed methods have limited spatial resolution when multiple humans are in close vicinity. The problem becomes exacerbated when there is no line-of-sight path to the humans. In this paper, we consider multi-person localization of humans in close vicinity of each other. We propose the use of synthetic aperture radar that combines both translation and rotation to increase effective aperture size, leveraging small rhythmic changes in the radar range due to human breathing. We experimentally evaluate the proposed algorithm in both line-of-sight and through-wall cases with three to five humans in the scene. Our experimental results show that: (i) larger synthetic apertures due to radar translation improve multi-person localization, e.g., by 1.42× when the aperture size is increased by a factor of 2×, and (ii) rotation can largely compensate for gains provided by translation, e.g., rotating the radar over 360° without changing the aperture size results in 1.22× gains over no rotation. Overall, maximal gains of 2.19× are achieved by rotating and translating over a 2× larger aperture.more » « lessFree, publicly-accessible full text available March 7, 2026
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Rice, T; Pandey, D; Ramirez, D; Knightly, E. (, MILCOM IEEE Military Communications Conference)
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Strasser, Michael; Ikehara, Ken; Pizer, Charlotte; Itaki, Takuya; Satoguchi, Yasufumi; Kioka, Arata; McHugh, Cecilia; Proust, Jean-Noel; Sawyer, Derek; Everest, J; et al (, Marine Geology)
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