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Improvement of Lidar Detection and Tracking Algorithm Using and Development of a Multi-sensor Fusion Module



Abstract


Ensuring the reliability of the perception of an intelligent vehicle is recognized as one of the challenges for the transition to the higher levels of autonomous driving. From a technological perspective, safety is enforced using combinations of sensors systems exploiting different physics principles used by optical sensor such as camera [1], by near infrared sensors like laser scanner [2], electromagnetic sensors like RADAR [3] and radiofrequency and ultrasonic sensors. Each sensing system is defined by its own hardware components, electronics and detection function with embedded processing which deliver a variable performance according the driving environment characteristics. Validating of perception functions for autonomous driving– and of the sub-functions involving the detection, tracking, object recognition– is extremely complex by the extent and the variety of the conditions to be tested (sensor, infrastructure, object, weather, … features). Gradually, the industry has embraced the idea of introducing simulation methods to support such validation [4, 5]. This study aims to improve a targets detection and tracking algorithm by laser scanner. These improvements relate to the targets detection and tracking modules in which new functionalities have been implemented to improve algorithm results. A code optimization has been implemented to improve the execution time of the algorithm and thereby increase the performance of data processing. The algorithm was tested with real data of SICK LIDAR, and synthetic LIDAR data with 4 and 16 layers simulated by PROSIVIC platform. The use of simulation helps us to study the influence of several parameters on the detection like effects of impacts points number, weather condition and to test the algorithm robustness. In addition, a study of the libraries was carried out in order to know the dependencies of the algorithm for the power to integrate at best in the PROSIVIC simulation platform. This report thus made it possible to show how these improvements were implemented in order to achieve the objectives as well as the functioning of these improvements

Document Details

ReferenceNWC21-307-b
AuthorHADJ-BACHIR. M
LanguageEnglish
TypePresentation
Date 27th October 2021
OrganisationESI Group
RegionGlobal

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