Synthetic Aperture Communication: Principles and Application to Massive IoT Satellite Uplink

Fuente: arXiv
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Hauptverfasser: Giroto, Lucas, Henninger, Marcus, Mandelli, Silvio
Format: Preprint
Veröffentlicht: 2026
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author Giroto, Lucas
Henninger, Marcus
Mandelli, Silvio
author_facet Giroto, Lucas
Henninger, Marcus
Mandelli, Silvio
contents While synthetic aperture radar is widely adopted to provide high-resolution imaging at long distances using small arrays, the concept of coherent synthetic aperture communication (SAC) has not yet been explored. This article introduces the principles of SAC for direct satellite-to-device uplink, showcasing precise direction-of-arrival estimation for user equipment (UE) devices, facilitating spatial signal separation, localization, and easing link budget constraints. Simulations for a low Earth orbit satellite at 600 km orbit and two UE devices performing orthogonal frequency-division multiplexing-based transmission with polar coding at 3.5 GHz demonstrate block error rates below 0.1 with transmission powers as low as -10 dBm, even under strong interference when UE devices are resolved but fall on each other's strongest angular sidelobe. These results validate the ability of the proposed scheme to address mutual interference and stringent power limitations, paving the way for massive Internet of Things connectivity in non-terrestrial networks.
format Preprint
id arxiv_https___arxiv_org_abs_2602_14629
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Synthetic Aperture Communication: Principles and Application to Massive IoT Satellite Uplink
Giroto, Lucas
Henninger, Marcus
Mandelli, Silvio
Signal Processing
While synthetic aperture radar is widely adopted to provide high-resolution imaging at long distances using small arrays, the concept of coherent synthetic aperture communication (SAC) has not yet been explored. This article introduces the principles of SAC for direct satellite-to-device uplink, showcasing precise direction-of-arrival estimation for user equipment (UE) devices, facilitating spatial signal separation, localization, and easing link budget constraints. Simulations for a low Earth orbit satellite at 600 km orbit and two UE devices performing orthogonal frequency-division multiplexing-based transmission with polar coding at 3.5 GHz demonstrate block error rates below 0.1 with transmission powers as low as -10 dBm, even under strong interference when UE devices are resolved but fall on each other's strongest angular sidelobe. These results validate the ability of the proposed scheme to address mutual interference and stringent power limitations, paving the way for massive Internet of Things connectivity in non-terrestrial networks.
title Synthetic Aperture Communication: Principles and Application to Massive IoT Satellite Uplink
topic Signal Processing
url https://arxiv.org/abs/2602.14629