Application of Fuzzy-AHP in GIS in Finding E-Scooter Trail for Street Art

Tourism trails connect destinations, points of interest, and travel-related businesses. By enhancing connectivity, these trails reduce travel time, allowing tourists to maximize their exploration of sites, leading to more efficient and satisfying travel experiences. The rising popularity of e-scoote...

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Published in:REVUE INTERNATIONALE DE GEOMATIQUE
Main Authors: Annuar, Muhammad Salahuddin Mohamad Shahrul; Naharudin, Nabilah; Azmi, Nur Aina Adiela; Khalid, Nafisah
Format: Article
Language:English
Published: TECH SCIENCE PRESS 2025
Subjects:
Online Access:https://www-webofscience-com.uitm.idm.oclc.org/wos/woscc/full-record/WOS:001401232100001
author Annuar
Muhammad Salahuddin Mohamad Shahrul; Naharudin
Nabilah; Azmi
Nur Aina Adiela; Khalid
Nafisah
spellingShingle Annuar
Muhammad Salahuddin Mohamad Shahrul; Naharudin
Nabilah; Azmi
Nur Aina Adiela; Khalid
Nafisah
Application of Fuzzy-AHP in GIS in Finding E-Scooter Trail for Street Art
Remote Sensing
author_facet Annuar
Muhammad Salahuddin Mohamad Shahrul; Naharudin
Nabilah; Azmi
Nur Aina Adiela; Khalid
Nafisah
author_sort Annuar
spelling Annuar, Muhammad Salahuddin Mohamad Shahrul; Naharudin, Nabilah; Azmi, Nur Aina Adiela; Khalid, Nafisah
Application of Fuzzy-AHP in GIS in Finding E-Scooter Trail for Street Art
REVUE INTERNATIONALE DE GEOMATIQUE
English
Article
Tourism trails connect destinations, points of interest, and travel-related businesses. By enhancing connectivity, these trails reduce travel time, allowing tourists to maximize their exploration of sites, leading to more efficient and satisfying travel experiences. The rising popularity of e-scooters in urban areas has highlighted the need to identify safe and accessible routes, particularly in cities where safety concerns have led to restrictions. Multi- Criteria Decision Analysis (MCDA) and Geographic Information System (GIS) network analysis can be employed to determine optimal paths by considering multiple criteria. This study focuses on finding an optimal street art trail for e-scooters in Bukit Bintang using Fuzzy-AHP (FAHP) and GIS. The objectives of this study are to identify the criteria of optimal pathway conditions for e-scooters and to develop a framework to find potential trails for escooters by using FAHP and GIS. FAHP was used to compute criterion weights based on expert input, revealing Path Facility as the most critical factor (weight: 0.495), followed by Slope (0.194), Traffic Speed (0.172), and Obstruction (0.139). These weights were integrated into a GIS-based network model, with the Travelling Salesperson Problem (TSP) method applied to identify the optimal e-scooter route. The resulting map showcases the ideal e-scooter trail connecting street art locations, alongside details on path conditions, street art sites, nearby train stations, and escooter rental stations. This methodology effectively combines FAHP and GIS to determine optimal routes, aiding authorities in improving e-scooter infrastructure. Additionally, the map can be integrated into e-scooter-sharing applications or displayed at key transportation hubs to guide riders.
TECH SCIENCE PRESS
1260-5875
2116-7060
2025
34

10.32604/rig.2025.058078
Remote Sensing

WOS:001401232100001
https://www-webofscience-com.uitm.idm.oclc.org/wos/woscc/full-record/WOS:001401232100001
title Application of Fuzzy-AHP in GIS in Finding E-Scooter Trail for Street Art
title_short Application of Fuzzy-AHP in GIS in Finding E-Scooter Trail for Street Art
title_full Application of Fuzzy-AHP in GIS in Finding E-Scooter Trail for Street Art
title_fullStr Application of Fuzzy-AHP in GIS in Finding E-Scooter Trail for Street Art
title_full_unstemmed Application of Fuzzy-AHP in GIS in Finding E-Scooter Trail for Street Art
title_sort Application of Fuzzy-AHP in GIS in Finding E-Scooter Trail for Street Art
container_title REVUE INTERNATIONALE DE GEOMATIQUE
language English
format Article
description Tourism trails connect destinations, points of interest, and travel-related businesses. By enhancing connectivity, these trails reduce travel time, allowing tourists to maximize their exploration of sites, leading to more efficient and satisfying travel experiences. The rising popularity of e-scooters in urban areas has highlighted the need to identify safe and accessible routes, particularly in cities where safety concerns have led to restrictions. Multi- Criteria Decision Analysis (MCDA) and Geographic Information System (GIS) network analysis can be employed to determine optimal paths by considering multiple criteria. This study focuses on finding an optimal street art trail for e-scooters in Bukit Bintang using Fuzzy-AHP (FAHP) and GIS. The objectives of this study are to identify the criteria of optimal pathway conditions for e-scooters and to develop a framework to find potential trails for escooters by using FAHP and GIS. FAHP was used to compute criterion weights based on expert input, revealing Path Facility as the most critical factor (weight: 0.495), followed by Slope (0.194), Traffic Speed (0.172), and Obstruction (0.139). These weights were integrated into a GIS-based network model, with the Travelling Salesperson Problem (TSP) method applied to identify the optimal e-scooter route. The resulting map showcases the ideal e-scooter trail connecting street art locations, alongside details on path conditions, street art sites, nearby train stations, and escooter rental stations. This methodology effectively combines FAHP and GIS to determine optimal routes, aiding authorities in improving e-scooter infrastructure. Additionally, the map can be integrated into e-scooter-sharing applications or displayed at key transportation hubs to guide riders.
publisher TECH SCIENCE PRESS
issn 1260-5875
2116-7060
publishDate 2025
container_volume 34
container_issue
doi_str_mv 10.32604/rig.2025.058078
topic Remote Sensing
topic_facet Remote Sensing
accesstype
id WOS:001401232100001
url https://www-webofscience-com.uitm.idm.oclc.org/wos/woscc/full-record/WOS:001401232100001
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collection Web of Science (WoS)
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