Brake Burnishing Effect on AEB Performance

被引:3
作者
Wilson, Myles [1 ]
Aylor, David [1 ]
Zuby, David [1 ]
Nolan, Joseph [1 ]
机构
[1] Insurance Inst Highway Safety, Arlington, VA 22201 USA
关键词
Compendex;
D O I
10.4271/2015-01-1481
中图分类号
U [交通运输];
学科分类号
08 ; 0823 ;
摘要
The Insurance Institute for Highway Safety (IIHS) evaluates autonomous emergency braking (AEB) systems as part of its front crash prevention (FCP) ratings. To prepare the test vehicles' brakes, each vehicle must have 200 miles on the odometer and be subjected to the abbreviated brake burnish procedure of Federal Motor Vehicle Safety Standard (FMVSS) 126. Other organizations conducting AEB testing follow the more extensive burnishing procedure described in FMVSS 135; Light Vehicle Brake Systems. This study compares the effects on AEB performance of the two burnishing procedures using seven 2014 model year vehicles. Six of the vehicles achieved maximum AEB speed reductions after 60 or fewer FMVSS 135 stops. After braking performance stabilized, the Mercedes ML350, BMW 328i, and Volvo S80 showed increased speed reductions compared with stops using brand new brake components. The Acura RLX and Cadillac CTS showed no change in speed reductions, and the speed reductions of the Dodge Durango and Lexus IS 250 worsened. After the FMVSS 135 burnishing was complete, AEB runs at 20 and 40 km/h were conducted to compare the results from the original IIHS FCP rating tests. For each of the vehicles, the IIHS FCP rating was not changed by different burnishing procedures. Results show that AEB speed reductions can improve or degrade as new brakes progress through the FMVSS 135 burnishing cycle. However, the differences in either direction are small and none of the tested vehicles had speed reduction differences that were great enough to change the IIHS FCP ratings.
引用
收藏
页码:39 / 46
页数:8
相关论文
共 50 条
  • [41] High-performance photodetection based on black arsenic utilizing the photoconductive effect
    Yu, Tingqiu
    Zhang, Shi
    Wu, Huilin
    Su, Jiayi
    OPTICAL MATERIALS EXPRESS, 2024, 14 (06): : 1446 - 1455
  • [42] Effect of levels of automation and vehicle control format on driver performance and attention allocation
    Deng, Yulin
    Kaber, David B.
    International Journal of Industrial Ergonomics, 2022, 92
  • [43] STUDY OF THE EFFECT OF SOLID ROTOR ON THE TRANSIENT PERFORMANCE OF A DWR SYNCHRONOUS GENERATOR.
    Bhakta, P.
    Journal of the Institution of Engineers (India): Electrical Engineering Division, 1978, 59 (pt EL3): : 142 - 149
  • [44] EFFECT OF REPEATED REDUCTION AND OXIDATION ON THE PERFORMANCE OF HIGH TEMPERATURE SHIFT CATALYST.
    Mahapatra, H.
    Gupta, K.P.
    Chhabra, D.S.
    Sen, B.
    Fertilizer Technology, 1981, 18 (1-2): : 102 - 105
  • [45] EFFECT OF DYNAMIC LOAD DISTRIBUTION ON THE TRACTIVE PERFORMANCE OF TIRES OPERATED IN TANDEM.
    Burt, Eddie C.
    Bailey, Alvin C.
    Taylor, James H.
    Transactions of the American Society of Agricultural Engineers, 1980, 23 (06): : 1395 - 1400
  • [46] The early bonding performance of geopolymer for repair: Effect of mix proportion of cement substrate
    Xiong, Guiyan
    Guo, Xiaolu
    Cundy, Andrew
    ce/papers, 2023, 6 (06) : 491 - 497
  • [47] Propagation of Cr(III) in porous media and its effect on polymer gelant performance
    Univ of Texas at Austin, Austin, United States
    J Pet Sci Eng, 1-3 (1-13):
  • [48] EFFECT OF THE RELATIVE AREA OF THE FLOW CORE ON THE PERFORMANCE OF A HYPERSONIC WIND TUNNEL.
    Bezmenov, V.Ya.
    Fluid mechanics. Soviet research, 1979, 8 (01): : 122 - 132
  • [49] Effect of coagulation bath conditions on morphology and performance of PU/PVDF blend membranes
    Liu, Meitian
    Xiao, Changfa
    Hu, Xiaoyu
    Liao, Xiaohua
    Gaofenzi Cailiao Kexue Yu Gongcheng/Polymeric Materials Science and Engineering, 2011, 27 (02): : 75 - 78
  • [50] EFFECT OF TRENDS IN SYSTEMS ARCHITECTURE ON HIGH PERFORMANCE MICROPROCESSORS - THE MC68000.
    LeMair, Ian
    Technology Review, 1979,