Adaptive Control for Optimizing a Traffic Light Intersection Based on an Embedded System

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Jose M Celis-Peñaranda
Christian D Escobar-Amado https://orcid.org/0000-0003-2907-7311
Sergio B Sepulveda-Mora
Sergio A Castro-Casadiego https://orcid.org/0000-0003-0962-9916
Byron Medina-Delgado https://orcid.org/0000-0003-0754-8629
Jhon J Ramírez-Mateus https://orcid.org/0000-0002-4387-6147

Keywords

Data base, adaptive control, virtual instrumentation, traffic light, embedded system

Abstract

In order to optimize the traffic flow on a road intersection, an adaptive control algorithm and a data base were designed; both components were hosted on a Raspberry Pi B+ embedded system. The data base helps to debug the performance of the controller. The efficiency of the algorithm was assessed using a virtual instrument, which emulated a traffic light intersection in the city of Cucuta, i. e., the magnetorresistive sensors, the activation process of the traffic lights and the traffic flow. By processing and updating the times assigned to the traffic lights, the traffic flow was increased up to 5.5 % and the maximum time a vehicle has to wait before passing through the traffic light was decreased up to 28 seconds. Aditionally the length of line was diminished up to 18 %. Based on this case study, it can be inferred that is possible to integrate the adaptive control and the embedded systems as software and hardware tools to improve the operation of traffic control systems.

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