An efficient indoor localization for smartphone users: Hybrid metaheuristic optimization methodology

Access points (APs) are used to define coordinates in an indoor positioning system with Wi-Fi. These systems utilize existing infrastructure and Wi-Fi APs to find out the exact location of a device based on its RSSI and MAC address. The accuracy of these devices usually depends on the number of APs...

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Main Authors: Aparna Raj, Sujala D. Shetty, C.S. Rahul
Format: Article
Language:English
Published: Elsevier 2024-01-01
Series:Alexandria Engineering Journal
Subjects:
Online Access:http://www.sciencedirect.com/science/article/pii/S111001682301102X
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author Aparna Raj
Sujala D. Shetty
C.S. Rahul
author_facet Aparna Raj
Sujala D. Shetty
C.S. Rahul
author_sort Aparna Raj
collection DOAJ
description Access points (APs) are used to define coordinates in an indoor positioning system with Wi-Fi. These systems utilize existing infrastructure and Wi-Fi APs to find out the exact location of a device based on its RSSI and MAC address. The accuracy of these devices usually depends on the number of APs located nearby and the environment in which they are deployed. Therefore, the ideal selection of these points increases the discernibility of the localization technique. The rapid development of metaheuristic algorithms in recent years has demonstrated their effectiveness in resolving challenging optimization issues. The primary research goal is to investigate how to enhance indoor localization accuracy with metaheuristic algorithms and to assess the efficacy of positioning using these methods. In this paper, we propose a novel optimization algorithm called the Improved Pathfinder Algorithm (IPFA) using metaheuristic hybridization, where our contribution is twofold. The IPFA's superiority in optimization is used to choose the important APs. Subsequently, to maintain the generality of the localization performance, we created a feature-based classification model for the chosen AP subsets. Two prominent benchmark datasets, UJIIndoorLoc and JUIndoorLoc, were used to test the proposed framework. The proposed Indoor Localization framework attained an accuracy of 98.26% with a mean absolute error (MAE) of approximately 0.79 m. The results demonstrate that the IPFA method is capable of accurately locating the position with minimal positioning errors.
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spelling doaj.art-be0095393cb44eb198c1cd78679d7e222024-01-28T04:19:36ZengElsevierAlexandria Engineering Journal1110-01682024-01-01876376An efficient indoor localization for smartphone users: Hybrid metaheuristic optimization methodologyAparna Raj0Sujala D. Shetty1C.S. Rahul2Department of Computer Science, Bits-Pilani, Dubai Campus, United Arab Emirates; Corresponding author.Department of Computer Science, Bits-Pilani, Dubai Campus, United Arab EmiratesSchool of Mathematics & Computer Science, IIT Goa, IndiaAccess points (APs) are used to define coordinates in an indoor positioning system with Wi-Fi. These systems utilize existing infrastructure and Wi-Fi APs to find out the exact location of a device based on its RSSI and MAC address. The accuracy of these devices usually depends on the number of APs located nearby and the environment in which they are deployed. Therefore, the ideal selection of these points increases the discernibility of the localization technique. The rapid development of metaheuristic algorithms in recent years has demonstrated their effectiveness in resolving challenging optimization issues. The primary research goal is to investigate how to enhance indoor localization accuracy with metaheuristic algorithms and to assess the efficacy of positioning using these methods. In this paper, we propose a novel optimization algorithm called the Improved Pathfinder Algorithm (IPFA) using metaheuristic hybridization, where our contribution is twofold. The IPFA's superiority in optimization is used to choose the important APs. Subsequently, to maintain the generality of the localization performance, we created a feature-based classification model for the chosen AP subsets. Two prominent benchmark datasets, UJIIndoorLoc and JUIndoorLoc, were used to test the proposed framework. The proposed Indoor Localization framework attained an accuracy of 98.26% with a mean absolute error (MAE) of approximately 0.79 m. The results demonstrate that the IPFA method is capable of accurately locating the position with minimal positioning errors.http://www.sciencedirect.com/science/article/pii/S111001682301102XIndoor localizationMetaheuristic hybridizationFeature selectionRSSISmart phone usersOptimization
spellingShingle Aparna Raj
Sujala D. Shetty
C.S. Rahul
An efficient indoor localization for smartphone users: Hybrid metaheuristic optimization methodology
Alexandria Engineering Journal
Indoor localization
Metaheuristic hybridization
Feature selection
RSSI
Smart phone users
Optimization
title An efficient indoor localization for smartphone users: Hybrid metaheuristic optimization methodology
title_full An efficient indoor localization for smartphone users: Hybrid metaheuristic optimization methodology
title_fullStr An efficient indoor localization for smartphone users: Hybrid metaheuristic optimization methodology
title_full_unstemmed An efficient indoor localization for smartphone users: Hybrid metaheuristic optimization methodology
title_short An efficient indoor localization for smartphone users: Hybrid metaheuristic optimization methodology
title_sort efficient indoor localization for smartphone users hybrid metaheuristic optimization methodology
topic Indoor localization
Metaheuristic hybridization
Feature selection
RSSI
Smart phone users
Optimization
url http://www.sciencedirect.com/science/article/pii/S111001682301102X
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