On replacing three-body abrasion testing with two-body abrasion testing

被引:9
|
作者
Budinski, Kenneth G. [1 ]
Budinski, Steven T. [1 ]
机构
[1] Bud Labs, Rochester, NY 14616 USA
关键词
Abrasion; Two body; Three body; Dry sand; ASTM G65; ASTM G174;
D O I
10.1016/j.wear.2017.01.001
中图分类号
TH [机械、仪表工业];
学科分类号
0802 ;
摘要
The dry sand rubber wheel abrasion test (ASTM G 65) is probably the most widely used abrasion test. It has been used for decades with favorable results. However, this test was developed when tool steels and fusion hardfacings were the materials usually ranked with this low-stress sand abrasion test. Two major problems have emerged in the use of this test: 1. The abradant (silica sand) is not aggressive enough for many modern materials. 2. There are many issues with the variability and availability of the rubbers used to force the abrasive against the test surface. This project was initiated to investigate the viability of using the ASTM G 174 loop abrasion test to replace or supplant the ASTM G 65 test. Friction tests were conducted on various substrates with rubbers wheels used in the three-body testing to understand the interface between the rubber and the abrasive. Limited tests were also conducted on replacing the rubber wheel in the three-body test with a steel wheel. Finally tests were conducted to develop a correlation between ASTM G 65 test results and ASTM G 174 test results. The friction tests confirm that various rubbers interact very differently with abrasives and substrates. A steel wheel cannot be used with the current ASTM G 65 force. The sand crushes to powder. However, a correlation curve was developed to allow conversion of historical ASTM G 65 data to results obtained with the ASTM G 174 two-body abrasion test. Overall this study suggests that two-body abrasion testing with aluminum oxide eliminates rubber issues and the aluminum oxide is abrasive enough to rank modern composites and cermets that are too wear-resistant for a sand abrasion test. (C) 2017 Elsevier B.V. All rights reserved.
引用
收藏
页码:1859 / 1865
页数:7
相关论文
共 50 条
  • [1] Relation between two-body abrasion and three-body abrasion
    Xi'an Gonglu Xueyuan Xuebao/Journal of Xi'an Highway Transportation University, 2000, 20 (03): : 93 - 97
  • [2] Two-body and three-body abrasion: A critical discussion
    Gates, JD
    WEAR, 1998, 214 (01) : 139 - 146
  • [3] Phase transformations of mono-crystal silicon induced by two-body and three-body abrasion in nanoscale
    Sun, Jiapeng
    Fang, Liang
    Han, Jing
    Han, Ying
    Chen, Huwei
    Sun, Kun
    COMPUTATIONAL MATERIALS SCIENCE, 2014, 82 : 140 - 150
  • [4] Three-body impact-abrasion laboratory testing for grinding ball materials
    Fiset, M
    Huard, G
    Grenier, M
    Jacob, C
    Comeau, G
    WEAR, 1998, 217 (02) : 271 - 275
  • [5] Two and three-body abrasion resistance of rubbers at elevated temperatures
    Molnar, W.
    Nevosad, A.
    Rojacz, H.
    Adam, K.
    Henze, H-J
    Ripoll, M. Rodriguez
    Badisch, E.
    WEAR, 2018, 414 : 174 - 181
  • [6] Computer simulation of two-body abrasion processes
    Fang, L.
    Xing, J.
    Liu, W.
    Xue, Q.
    Wu, G.
    Zhang, X.
    Wear, 2001, 250-251 (PART 2) : 1356 - 1360
  • [7] Computer simulation of two-body abrasion processes
    Fang, LA
    Xing, JD
    Liu, WM
    Xue, QJ
    Wu, GQ
    Zhang, XF
    WEAR, 2001, 251 : 1356 - 1360
  • [8] Modelling of grain motion for three-body abrasion
    Loresch, I.
    Riemer, O.
    15TH CIRP CONFERENCE ON MODELLING OF MACHINING OPERATIONS (15TH CMMO), 2015, 31 : 282 - 286
  • [9] Wear mechanisms and scale effects in two-body abrasion
    De Pellegrin, D. V.
    Torrance, A. A.
    Haran, E.
    WEAR, 2009, 266 (1-2) : 13 - 20
  • [10] Two-body abrasion of nitrocarburised steels for hydraulic cylinders
    Al-Rubaie, KS
    Steinmeier, F
    Pohl, M
    WEAR, 2000, 243 (1-2) : 112 - 121