ARCHITECTURE OF FOUR-ARM INTERSECTION PERFORMANCE EVALUATION SYSTEM BASED ON TURN MOVEMENT COUNT AND OMNIDIRECTIONAL CAMERA

Traffic management involves the systematic regulation of the movement of people and vehicles to enhance safety, efficiency, and mobility. Area Traffic Control Systems (ATCS), as a component of traffic management, are designed to regulate traffic flow at intersections by coordinating vehicle movem...

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Main Author: Agil Alunjati, Figo
Format: Theses
Language:Indonesia
Online Access:https://digilib.itb.ac.id/gdl/view/87631
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Institution: Institut Teknologi Bandung
Language: Indonesia
id id-itb.:87631
spelling id-itb.:876312025-01-31T14:24:23ZARCHITECTURE OF FOUR-ARM INTERSECTION PERFORMANCE EVALUATION SYSTEM BASED ON TURN MOVEMENT COUNT AND OMNIDIRECTIONAL CAMERA Agil Alunjati, Figo Indonesia Theses Intersection Performance Evaluation, Smart Mobility, Turn Movement Count, Video Analytics. INSTITUT TEKNOLOGI BANDUNG https://digilib.itb.ac.id/gdl/view/87631 Traffic management involves the systematic regulation of the movement of people and vehicles to enhance safety, efficiency, and mobility. Area Traffic Control Systems (ATCS), as a component of traffic management, are designed to regulate traffic flow at intersections by coordinating vehicle movements across different arms and reducing potential conflicts. Intersections represent critical points of convergence within the road network. Previous research has developed many methods for controlling ATCS. However, there are still few studies that focus on using omnidirectional cameras and evaluating their accuracy and processing speed. Hence, this research focuses on developing a robust vehicle detection methodology that balances high accuracy and high frame rate using an omnidirectional ATCS camera. This research uses a case study approach at the Sedayu intersection in Yogyakarta, collecting data with omnidirectional CCTV cameras. The data, including vehicle turning movements, was analyzed using video analytics over two days: a weekday and a weekend. This study evaluates the robustness of various single-stage model architectures, focusing on both accuracy metrics (confidence level, mAP, precision, F1-Score, Recall) and processing speed (FPS, processing time, GPU memory, GPU load, GPU temperature). The objective is to identify a model that balances high accuracy with real-time processing capabilities. The results indicate that YOLOv11, with a batch size of 32, demonstrates robust real-time performance while maintaining reasonable accuracy. However, the findings also reveal consistent suboptimal performance, with Level of Service ratings of E and F, underscoring the need for strategic interventions in traffic signal control and lane configuration. text
institution Institut Teknologi Bandung
building Institut Teknologi Bandung Library
continent Asia
country Indonesia
Indonesia
content_provider Institut Teknologi Bandung
collection Digital ITB
language Indonesia
description Traffic management involves the systematic regulation of the movement of people and vehicles to enhance safety, efficiency, and mobility. Area Traffic Control Systems (ATCS), as a component of traffic management, are designed to regulate traffic flow at intersections by coordinating vehicle movements across different arms and reducing potential conflicts. Intersections represent critical points of convergence within the road network. Previous research has developed many methods for controlling ATCS. However, there are still few studies that focus on using omnidirectional cameras and evaluating their accuracy and processing speed. Hence, this research focuses on developing a robust vehicle detection methodology that balances high accuracy and high frame rate using an omnidirectional ATCS camera. This research uses a case study approach at the Sedayu intersection in Yogyakarta, collecting data with omnidirectional CCTV cameras. The data, including vehicle turning movements, was analyzed using video analytics over two days: a weekday and a weekend. This study evaluates the robustness of various single-stage model architectures, focusing on both accuracy metrics (confidence level, mAP, precision, F1-Score, Recall) and processing speed (FPS, processing time, GPU memory, GPU load, GPU temperature). The objective is to identify a model that balances high accuracy with real-time processing capabilities. The results indicate that YOLOv11, with a batch size of 32, demonstrates robust real-time performance while maintaining reasonable accuracy. However, the findings also reveal consistent suboptimal performance, with Level of Service ratings of E and F, underscoring the need for strategic interventions in traffic signal control and lane configuration.
format Theses
author Agil Alunjati, Figo
spellingShingle Agil Alunjati, Figo
ARCHITECTURE OF FOUR-ARM INTERSECTION PERFORMANCE EVALUATION SYSTEM BASED ON TURN MOVEMENT COUNT AND OMNIDIRECTIONAL CAMERA
author_facet Agil Alunjati, Figo
author_sort Agil Alunjati, Figo
title ARCHITECTURE OF FOUR-ARM INTERSECTION PERFORMANCE EVALUATION SYSTEM BASED ON TURN MOVEMENT COUNT AND OMNIDIRECTIONAL CAMERA
title_short ARCHITECTURE OF FOUR-ARM INTERSECTION PERFORMANCE EVALUATION SYSTEM BASED ON TURN MOVEMENT COUNT AND OMNIDIRECTIONAL CAMERA
title_full ARCHITECTURE OF FOUR-ARM INTERSECTION PERFORMANCE EVALUATION SYSTEM BASED ON TURN MOVEMENT COUNT AND OMNIDIRECTIONAL CAMERA
title_fullStr ARCHITECTURE OF FOUR-ARM INTERSECTION PERFORMANCE EVALUATION SYSTEM BASED ON TURN MOVEMENT COUNT AND OMNIDIRECTIONAL CAMERA
title_full_unstemmed ARCHITECTURE OF FOUR-ARM INTERSECTION PERFORMANCE EVALUATION SYSTEM BASED ON TURN MOVEMENT COUNT AND OMNIDIRECTIONAL CAMERA
title_sort architecture of four-arm intersection performance evaluation system based on turn movement count and omnidirectional camera
url https://digilib.itb.ac.id/gdl/view/87631
_version_ 1823000125811720192