Development of a Driving Cycle for Fuzhou Using K-Means and AMPSO

The driving cycle is a speed-to-time curve, a fundamental technique in the automotive industry, and also a basis to set standards for fuel consumption and emissions of vehicles. A driving cycle is developed based on firsthand driving data collected from fieldwork. First, bad data in the original dat...

Full description

Bibliographic Details
Main Authors: Minrui Zhao, Hongni Gao, Qi Han, Jiaang Ge, Wei Wang, Jue Qu
Format: Article
Language:English
Published: Hindawi-Wiley 2021-01-01
Series:Journal of Advanced Transportation
Online Access:http://dx.doi.org/10.1155/2021/5430137
id doaj-7b5261ffaeca407cbf8a5b86168cc263
record_format Article
spelling doaj-7b5261ffaeca407cbf8a5b86168cc2632021-03-08T02:02:11ZengHindawi-WileyJournal of Advanced Transportation2042-31952021-01-01202110.1155/2021/5430137Development of a Driving Cycle for Fuzhou Using K-Means and AMPSOMinrui Zhao0Hongni Gao1Qi Han2Jiaang Ge3Wei Wang4Jue Qu5Air and Missile Defense CollegeAir and Missile Defense CollegeAir and Missile Defense CollegeAir and Missile Defense CollegeAir and Missile Defense CollegeAir and Missile Defense CollegeThe driving cycle is a speed-to-time curve, a fundamental technique in the automotive industry, and also a basis to set standards for fuel consumption and emissions of vehicles. A driving cycle is developed based on firsthand driving data collected from fieldwork. First, bad data in the original dataset are preprocessed, the time-series standard smoothing algorithm is used to smoothen the data, and Lagrange’s interpolation is used to realize data interpolation. Next, the rules for kinematic fragment extraction are set to divide the data into kinematic fragments. Last, an evaluation system of kinematic fragment feature parameters is built. On that basis, the K-means clustering method is used to cluster the dimensionally reduced data, and the adaptive mutation particle swarm optimization (AMPSO) algorithm is employed to select the optimal fragments from candidate fragments to develop a driving cycle. The experiment result shows that the developed driving cycle can represent the kinematic features of the experiment car and provides a basis for the development of a driving cycle for Fuzhou.http://dx.doi.org/10.1155/2021/5430137
collection DOAJ
language English
format Article
sources DOAJ
author Minrui Zhao
Hongni Gao
Qi Han
Jiaang Ge
Wei Wang
Jue Qu
spellingShingle Minrui Zhao
Hongni Gao
Qi Han
Jiaang Ge
Wei Wang
Jue Qu
Development of a Driving Cycle for Fuzhou Using K-Means and AMPSO
Journal of Advanced Transportation
author_facet Minrui Zhao
Hongni Gao
Qi Han
Jiaang Ge
Wei Wang
Jue Qu
author_sort Minrui Zhao
title Development of a Driving Cycle for Fuzhou Using K-Means and AMPSO
title_short Development of a Driving Cycle for Fuzhou Using K-Means and AMPSO
title_full Development of a Driving Cycle for Fuzhou Using K-Means and AMPSO
title_fullStr Development of a Driving Cycle for Fuzhou Using K-Means and AMPSO
title_full_unstemmed Development of a Driving Cycle for Fuzhou Using K-Means and AMPSO
title_sort development of a driving cycle for fuzhou using k-means and ampso
publisher Hindawi-Wiley
series Journal of Advanced Transportation
issn 2042-3195
publishDate 2021-01-01
description The driving cycle is a speed-to-time curve, a fundamental technique in the automotive industry, and also a basis to set standards for fuel consumption and emissions of vehicles. A driving cycle is developed based on firsthand driving data collected from fieldwork. First, bad data in the original dataset are preprocessed, the time-series standard smoothing algorithm is used to smoothen the data, and Lagrange’s interpolation is used to realize data interpolation. Next, the rules for kinematic fragment extraction are set to divide the data into kinematic fragments. Last, an evaluation system of kinematic fragment feature parameters is built. On that basis, the K-means clustering method is used to cluster the dimensionally reduced data, and the adaptive mutation particle swarm optimization (AMPSO) algorithm is employed to select the optimal fragments from candidate fragments to develop a driving cycle. The experiment result shows that the developed driving cycle can represent the kinematic features of the experiment car and provides a basis for the development of a driving cycle for Fuzhou.
url http://dx.doi.org/10.1155/2021/5430137
work_keys_str_mv AT minruizhao developmentofadrivingcycleforfuzhouusingkmeansandampso
AT hongnigao developmentofadrivingcycleforfuzhouusingkmeansandampso
AT qihan developmentofadrivingcycleforfuzhouusingkmeansandampso
AT jiaangge developmentofadrivingcycleforfuzhouusingkmeansandampso
AT weiwang developmentofadrivingcycleforfuzhouusingkmeansandampso
AT juequ developmentofadrivingcycleforfuzhouusingkmeansandampso
_version_ 1714797141975629824