Design of Automatic Emergency Braking Model Based on Critical Distance Measurement and Evaluation

Traffic accident is one of the biggest cause of death around the world. Rear-end collision has the second largest amount of occurance after frontal collision in Indonesia. Collision avoidance system in the form of an automatic emergency braking system was developed to reduce the number of road...

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Bibliographic Details
Main Author: Patrick, Jason
Format: Final Project
Language:Indonesia
Online Access:https://digilib.itb.ac.id/gdl/view/42548
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Institution: Institut Teknologi Bandung
Language: Indonesia
id id-itb.:42548
spelling id-itb.:425482019-09-20T13:10:01ZDesign of Automatic Emergency Braking Model Based on Critical Distance Measurement and Evaluation Patrick, Jason Indonesia Final Project Automatic emergency braking, conservative algorithm, rear-end collision INSTITUT TEKNOLOGI BANDUNG https://digilib.itb.ac.id/gdl/view/42548 Traffic accident is one of the biggest cause of death around the world. Rear-end collision has the second largest amount of occurance after frontal collision in Indonesia. Collision avoidance system in the form of an automatic emergency braking system was developed to reduce the number of road traffic accidents. But the development of the collision avoidance system in Indonesia is minimal. The design process of the automatic emergency braking model is aimed to help the development of the collision avoidance system in Indonesia The design process of the model is started by designing the wheel model, and the automatic braking system model. Then, the design process of the control system will be conducted by using a conservative algorithm and proportional control. The test will be conducted by varying the proportional constant, the system delay time parameter, and the deceleration parameter on the algorithm. Based on the test results, the proportional constant of 35, the system delay of 0.3 seconds, and the deceleration parameter of 5 m/s, was chosen as the best combination of parameters. The test has a jerk result of -12.08 m/s3 ii and 11.44 m/s3 , with an average decceleration of 5.25 m/s2. So it can be concluded that the design process of the automatic emergency braking system model was successfully carried out and it produced a mechanical and control system model that was able to simulate the emergency braking process when the relative distance between vehicles was below the critical braking distance. However, a distance simulation system should be implemented for further developments, to have a better response result. In addition, the adaptive control system and the fusion network system of the sensors should also be implemented to obtain a better measurement with higher reliability. 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 accident is one of the biggest cause of death around the world. Rear-end collision has the second largest amount of occurance after frontal collision in Indonesia. Collision avoidance system in the form of an automatic emergency braking system was developed to reduce the number of road traffic accidents. But the development of the collision avoidance system in Indonesia is minimal. The design process of the automatic emergency braking model is aimed to help the development of the collision avoidance system in Indonesia The design process of the model is started by designing the wheel model, and the automatic braking system model. Then, the design process of the control system will be conducted by using a conservative algorithm and proportional control. The test will be conducted by varying the proportional constant, the system delay time parameter, and the deceleration parameter on the algorithm. Based on the test results, the proportional constant of 35, the system delay of 0.3 seconds, and the deceleration parameter of 5 m/s, was chosen as the best combination of parameters. The test has a jerk result of -12.08 m/s3 ii and 11.44 m/s3 , with an average decceleration of 5.25 m/s2. So it can be concluded that the design process of the automatic emergency braking system model was successfully carried out and it produced a mechanical and control system model that was able to simulate the emergency braking process when the relative distance between vehicles was below the critical braking distance. However, a distance simulation system should be implemented for further developments, to have a better response result. In addition, the adaptive control system and the fusion network system of the sensors should also be implemented to obtain a better measurement with higher reliability.
format Final Project
author Patrick, Jason
spellingShingle Patrick, Jason
Design of Automatic Emergency Braking Model Based on Critical Distance Measurement and Evaluation
author_facet Patrick, Jason
author_sort Patrick, Jason
title Design of Automatic Emergency Braking Model Based on Critical Distance Measurement and Evaluation
title_short Design of Automatic Emergency Braking Model Based on Critical Distance Measurement and Evaluation
title_full Design of Automatic Emergency Braking Model Based on Critical Distance Measurement and Evaluation
title_fullStr Design of Automatic Emergency Braking Model Based on Critical Distance Measurement and Evaluation
title_full_unstemmed Design of Automatic Emergency Braking Model Based on Critical Distance Measurement and Evaluation
title_sort design of automatic emergency braking model based on critical distance measurement and evaluation
url https://digilib.itb.ac.id/gdl/view/42548
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