RSSGM: Recurrent Self-Similar Gauss–Markov Mobility Model

Understanding node mobility is critical for the proper simulation of mobile devices in a wireless network. However, current mobility models often do not reflect the realistic movements of users within their environments. They also do not provide the freedom to adjust their degrees of randomness or a...

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Main Authors: Mohammed J. F. Alenazi, Shatha O. Abbas, Saleh Almowuena, Maazen Alsabaan
Format: Article
Language:English
Published: MDPI AG 2020-12-01
Series:Electronics
Subjects:
Online Access:https://www.mdpi.com/2079-9292/9/12/2089
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spelling doaj-c74029e94f79476e8c00222189e8e48c2020-12-08T00:04:52ZengMDPI AGElectronics2079-92922020-12-0192089208910.3390/electronics9122089RSSGM: Recurrent Self-Similar Gauss–Markov Mobility ModelMohammed J. F. Alenazi0Shatha O. Abbas1Saleh Almowuena2Maazen Alsabaan3Department of Computer Engineering, College of Computer and Information Sciences, King Saud University, Riyadh 11451, Saudi ArabiaDepartment of Computer Engineering, College of Computer and Information Sciences, King Saud University, Riyadh 11451, Saudi ArabiaDepartment of Computer Engineering, College of Computer and Information Sciences, King Saud University, Riyadh 11451, Saudi ArabiaDepartment of Computer Engineering, College of Computer and Information Sciences, King Saud University, Riyadh 11451, Saudi ArabiaUnderstanding node mobility is critical for the proper simulation of mobile devices in a wireless network. However, current mobility models often do not reflect the realistic movements of users within their environments. They also do not provide the freedom to adjust their degrees of randomness or adequately mimic human movements by injecting possible crossing points and adding recurrent patterns. In this paper, we propose the recurrent self-similar Gauss–Markov mobility (RSSGM) model, a novel mobility model that is suitable for applications in which nodes exhibit recurrent visits to selected locations with semi-similar routes. Examples of such applications include daily human routines, airplane and public transportation routes, and intra-campus student walks. First, we present the proposed algorithm and its assumptions, and then we study its behavior in different scenarios. The study’s results show that different and more realistic mobility traces can be achieved without the need for complex computational models or existing GPS records. Our model can flexibly adjust its behavior to fit any application by carefully tuning and choosing the right values for its parameters.https://www.mdpi.com/2079-9292/9/12/2089mobility modelwireless networkingGauss Markovmobile networkhuman mobility
collection DOAJ
language English
format Article
sources DOAJ
author Mohammed J. F. Alenazi
Shatha O. Abbas
Saleh Almowuena
Maazen Alsabaan
spellingShingle Mohammed J. F. Alenazi
Shatha O. Abbas
Saleh Almowuena
Maazen Alsabaan
RSSGM: Recurrent Self-Similar Gauss–Markov Mobility Model
Electronics
mobility model
wireless networking
Gauss Markov
mobile network
human mobility
author_facet Mohammed J. F. Alenazi
Shatha O. Abbas
Saleh Almowuena
Maazen Alsabaan
author_sort Mohammed J. F. Alenazi
title RSSGM: Recurrent Self-Similar Gauss–Markov Mobility Model
title_short RSSGM: Recurrent Self-Similar Gauss–Markov Mobility Model
title_full RSSGM: Recurrent Self-Similar Gauss–Markov Mobility Model
title_fullStr RSSGM: Recurrent Self-Similar Gauss–Markov Mobility Model
title_full_unstemmed RSSGM: Recurrent Self-Similar Gauss–Markov Mobility Model
title_sort rssgm: recurrent self-similar gauss–markov mobility model
publisher MDPI AG
series Electronics
issn 2079-9292
publishDate 2020-12-01
description Understanding node mobility is critical for the proper simulation of mobile devices in a wireless network. However, current mobility models often do not reflect the realistic movements of users within their environments. They also do not provide the freedom to adjust their degrees of randomness or adequately mimic human movements by injecting possible crossing points and adding recurrent patterns. In this paper, we propose the recurrent self-similar Gauss–Markov mobility (RSSGM) model, a novel mobility model that is suitable for applications in which nodes exhibit recurrent visits to selected locations with semi-similar routes. Examples of such applications include daily human routines, airplane and public transportation routes, and intra-campus student walks. First, we present the proposed algorithm and its assumptions, and then we study its behavior in different scenarios. The study’s results show that different and more realistic mobility traces can be achieved without the need for complex computational models or existing GPS records. Our model can flexibly adjust its behavior to fit any application by carefully tuning and choosing the right values for its parameters.
topic mobility model
wireless networking
Gauss Markov
mobile network
human mobility
url https://www.mdpi.com/2079-9292/9/12/2089
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AT salehalmowuena rssgmrecurrentselfsimilargaussmarkovmobilitymodel
AT maazenalsabaan rssgmrecurrentselfsimilargaussmarkovmobilitymodel
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