HGL: A hybrid global-local load balancing routing scheme for the Internet of Things through satellite networks

Satellite networks provide complete connectivity and worldwide data transmission capability for constructing the Internet of Things. However, because of the varying Internet of Things traffic density, satellite networks may endure imbalanced traffic requirements and frequent link congestion. To effe...

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Main Authors: Ziluan Liu, Jiangsheng Li, Yanru Wang, Xin Li, Shanzhi Chen
Format: Article
Language:English
Published: SAGE Publishing 2017-03-01
Series:International Journal of Distributed Sensor Networks
Online Access:https://doi.org/10.1177/1550147717692586
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spelling doaj-a4949a546e6a4d1096658d3261cab44e2020-11-25T03:26:02ZengSAGE PublishingInternational Journal of Distributed Sensor Networks1550-14772017-03-011310.1177/1550147717692586HGL: A hybrid global-local load balancing routing scheme for the Internet of Things through satellite networksZiluan Liu0Jiangsheng Li1Yanru Wang2Xin Li3Shanzhi Chen4Institute of Network Technology, Beijing University of Posts and Telecommunications, Beijing, ChinaState Power Economic Research Institute, Beijing, ChinaBeijing Guodiantong Network Technology Co. Ltd., Beijing, ChinaInstitute of Network Technology, Beijing University of Posts and Telecommunications, Beijing, ChinaState Key Laboratory of Wireless Mobile Communications, Datang Telecom Technology & Industry Group, China Academy of Telecommunication Technology, Beijing, ChinaSatellite networks provide complete connectivity and worldwide data transmission capability for constructing the Internet of Things. However, because of the varying Internet of Things traffic density, satellite networks may endure imbalanced traffic requirements and frequent link congestion. To effectively resolve these problems and optimally transmit Internet of Things data, a novel hybrid global-local load balancing routing scheme for Low Earth Orbit satellite networks is proposed in this article. Hybrid global-local load balancing routing scheme enables satellites to route Internet of Things traffic through global planning and local real-time adjustments in two steps. In hybrid global-local load balancing routing scheme, given the predictive nature of Internet of Things traffic distribution and Low Earth Orbit satellite networks, the inter-satellite traffic demand is decomposed into a predictable long-range baseline and unpredictable short-range fluctuations. A global strategy is employed first for preliminary global traffic allocation based on long-range baselines, and a local strategy is then employed for route adjustments based on short-range fluctuations. With the combination of global planning and local real-time adjustments, network traffic can eventually obtain a near-optimal allocation. Numerical simulations indicate that in contrast to single-strategy schemes, hybrid global-local load balancing routing scheme can more thoroughly eliminate congestion, and it performs better in measures such as packet loss rate, average queuing delay, traffic distribution, route oscillation, and communication overhead.https://doi.org/10.1177/1550147717692586
collection DOAJ
language English
format Article
sources DOAJ
author Ziluan Liu
Jiangsheng Li
Yanru Wang
Xin Li
Shanzhi Chen
spellingShingle Ziluan Liu
Jiangsheng Li
Yanru Wang
Xin Li
Shanzhi Chen
HGL: A hybrid global-local load balancing routing scheme for the Internet of Things through satellite networks
International Journal of Distributed Sensor Networks
author_facet Ziluan Liu
Jiangsheng Li
Yanru Wang
Xin Li
Shanzhi Chen
author_sort Ziluan Liu
title HGL: A hybrid global-local load balancing routing scheme for the Internet of Things through satellite networks
title_short HGL: A hybrid global-local load balancing routing scheme for the Internet of Things through satellite networks
title_full HGL: A hybrid global-local load balancing routing scheme for the Internet of Things through satellite networks
title_fullStr HGL: A hybrid global-local load balancing routing scheme for the Internet of Things through satellite networks
title_full_unstemmed HGL: A hybrid global-local load balancing routing scheme for the Internet of Things through satellite networks
title_sort hgl: a hybrid global-local load balancing routing scheme for the internet of things through satellite networks
publisher SAGE Publishing
series International Journal of Distributed Sensor Networks
issn 1550-1477
publishDate 2017-03-01
description Satellite networks provide complete connectivity and worldwide data transmission capability for constructing the Internet of Things. However, because of the varying Internet of Things traffic density, satellite networks may endure imbalanced traffic requirements and frequent link congestion. To effectively resolve these problems and optimally transmit Internet of Things data, a novel hybrid global-local load balancing routing scheme for Low Earth Orbit satellite networks is proposed in this article. Hybrid global-local load balancing routing scheme enables satellites to route Internet of Things traffic through global planning and local real-time adjustments in two steps. In hybrid global-local load balancing routing scheme, given the predictive nature of Internet of Things traffic distribution and Low Earth Orbit satellite networks, the inter-satellite traffic demand is decomposed into a predictable long-range baseline and unpredictable short-range fluctuations. A global strategy is employed first for preliminary global traffic allocation based on long-range baselines, and a local strategy is then employed for route adjustments based on short-range fluctuations. With the combination of global planning and local real-time adjustments, network traffic can eventually obtain a near-optimal allocation. Numerical simulations indicate that in contrast to single-strategy schemes, hybrid global-local load balancing routing scheme can more thoroughly eliminate congestion, and it performs better in measures such as packet loss rate, average queuing delay, traffic distribution, route oscillation, and communication overhead.
url https://doi.org/10.1177/1550147717692586
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