Adaptive Ku-Band Solar Rectenna for Internet-of-Things- (IoT)-over-Satellite Applications
The emergence of new IoT applications in regional and remote areas has increased the need for a global IoT connectivity beyond existing terrestrial network coverage. However, in many cases, it is not economically viable to build a dedicated terrestrial network to cover these remote areas due to popu...
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Series: | Wireless Communications and Mobile Computing |
Online Access: | http://dx.doi.org/10.1155/2021/9934025 |
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doaj-3de48d0d13f44258a48222da7175ae4e2021-07-26T00:34:01ZengHindawi-WileyWireless Communications and Mobile Computing1530-86772021-01-01202110.1155/2021/9934025Adaptive Ku-Band Solar Rectenna for Internet-of-Things- (IoT)-over-Satellite ApplicationsChokri Baccouch0Chayma Bahhar1Hedi Sakli2Taoufik Aguili3SYS’COM Laboratory National Engineering School of TunisMACS Research Laboratory RL16ES22MACS Research Laboratory RL16ES22SYS’COM Laboratory National Engineering School of TunisThe emergence of new IoT applications in regional and remote areas has increased the need for a global IoT connectivity beyond existing terrestrial network coverage. However, in many cases, it is not economically viable to build a dedicated terrestrial network to cover these remote areas due to population sparsity and the lack of business case. In this paper, we propose a framework for designing a solar rectenna for IoT-over-satellite applications using nanosatellites. Utilizing such a framework will allow valuable radio spectrum resources to be shared between satellite and terrestrial users. Thus, the autonomous power supply of these objects becomes a big challenge. Indeed, the harvest of solar energy and the conversion of RF energy into electric voltage are a hot topic. Our contribution consists in offering a solar rectenna system to collect solar and RF energy as well as the radio frequency transmission. A parametric study is carried out to follow the influence on the performance of this system. A topology of rectifying circuits is proposed in the present work. The parametric study has shown that the efficiency RF/DC conversion can reach 23.2% for an input power of 5 dBm and a load resistance of 2 kΩ. To ensure the satellite communication of IoT-connected autonomous objects, this system is operated in the X or Ku band.http://dx.doi.org/10.1155/2021/9934025 |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Chokri Baccouch Chayma Bahhar Hedi Sakli Taoufik Aguili |
spellingShingle |
Chokri Baccouch Chayma Bahhar Hedi Sakli Taoufik Aguili Adaptive Ku-Band Solar Rectenna for Internet-of-Things- (IoT)-over-Satellite Applications Wireless Communications and Mobile Computing |
author_facet |
Chokri Baccouch Chayma Bahhar Hedi Sakli Taoufik Aguili |
author_sort |
Chokri Baccouch |
title |
Adaptive Ku-Band Solar Rectenna for Internet-of-Things- (IoT)-over-Satellite Applications |
title_short |
Adaptive Ku-Band Solar Rectenna for Internet-of-Things- (IoT)-over-Satellite Applications |
title_full |
Adaptive Ku-Band Solar Rectenna for Internet-of-Things- (IoT)-over-Satellite Applications |
title_fullStr |
Adaptive Ku-Band Solar Rectenna for Internet-of-Things- (IoT)-over-Satellite Applications |
title_full_unstemmed |
Adaptive Ku-Band Solar Rectenna for Internet-of-Things- (IoT)-over-Satellite Applications |
title_sort |
adaptive ku-band solar rectenna for internet-of-things- (iot)-over-satellite applications |
publisher |
Hindawi-Wiley |
series |
Wireless Communications and Mobile Computing |
issn |
1530-8677 |
publishDate |
2021-01-01 |
description |
The emergence of new IoT applications in regional and remote areas has increased the need for a global IoT connectivity beyond existing terrestrial network coverage. However, in many cases, it is not economically viable to build a dedicated terrestrial network to cover these remote areas due to population sparsity and the lack of business case. In this paper, we propose a framework for designing a solar rectenna for IoT-over-satellite applications using nanosatellites. Utilizing such a framework will allow valuable radio spectrum resources to be shared between satellite and terrestrial users. Thus, the autonomous power supply of these objects becomes a big challenge. Indeed, the harvest of solar energy and the conversion of RF energy into electric voltage are a hot topic. Our contribution consists in offering a solar rectenna system to collect solar and RF energy as well as the radio frequency transmission. A parametric study is carried out to follow the influence on the performance of this system. A topology of rectifying circuits is proposed in the present work. The parametric study has shown that the efficiency RF/DC conversion can reach 23.2% for an input power of 5 dBm and a load resistance of 2 kΩ. To ensure the satellite communication of IoT-connected autonomous objects, this system is operated in the X or Ku band. |
url |
http://dx.doi.org/10.1155/2021/9934025 |
work_keys_str_mv |
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1721282516146454528 |