References(67)
[1]
Stolarski, T A. Tribology in Machine Design. Oxford (UK): Butterworth-Heinemann, 2000.
[2]
Stachowiak G W, Batchelor A W. Engineering Tribology, 3rd edn. Amsterdam (The Netherlands): Butterworth-Heinemann, 2005.
[3]
Zum Gahr K H. Microstructure and Wear of Materials. Amsterdam (The Netherlands): Elsevier Amsterdam, 1987.
[4]
Misra A, Finnie I. A review of the abrasive wear of metals. J Eng Mater Technol 104(2): 94–101 (1982)
[5]
Czichos H. Tribology: A Systems Approach to the Science and Technology of Friction, Lubrication and Wear. Amsterdam (The Netherlands): Elsevier Science, 1978.
[6]
Rabinowicz E, Dunn L A, Russell P G. A study of abrasive wear under three-body conditions. Wear 4(5): 345–355 (1961)
[7]
Misra A, Finnie I. A classification of three-body abrasive wear and design of a new tester. Wear 60(1): 111–121 (1980)
[8]
Zum Gahr K H. Wear by hard particles. Tribol Int 31(10): 587–596 (1998)
[9]
Sin H, Saka N, Suh N P. Abrasive wear mechanisms and the grit size effect. Wear 55(1): 163–190 (1979)
[10]
Misra A, Finnie I. Some observations on two-body abrasive wear. Wear 68(1): 41–56 (1981)
[11]
Misra A, Finnie I. Correlations between two-body and three-body abrasion and erosion of metals. Wear 68(1): 33–39 (1981)
[12]
Misra A, Finnie I. On the size effect in abrasive and erosive wear. Wear 65(3): 359–373 (1981)
[13]
Williams J A, Hyncica A M. Mechanisms of abrasive wear in lubricated contacts. Wear 152(1): 57–74 (1992)
[14]
Williams J A, Hyncica A M. Abrasive wear in lubricated contacts. J Phys D: Appl Phys 25(1A): A81–A90 (1992)
[15]
Tressia G, Penagos J J, Sinatora A. Effect of abrasive particle size on slurry abrasion resistance of austenitic and martensitic steels. Wear 376–377: 63–69 (2017)
[16]
Andrade M F C, Martinho R P, Silva F J G, Alexandre R J D, Baptista A P M. Influence of the abrasive particles size in the micro-abrasion wear tests of TiAlSiN thin coatings. Wear 267(1–4): 12–18 (2009)
[17]
Petrica M, Badisch E, Peinsitt T. Abrasive wear mechanisms and their relation to rock properties. Wear 308(1–2): 86–94 (2013)
[18]
Ren X Y, Peng Z J, Hu Y B, Rong H Y, Wang C B, Fu Z Q, Qi L H, Miao H Z. Three-body abrasion behavior of ultrafine WC–Co hardmetal RX8UF with carborundum, corundum and silica sands in water-based slurries. Tribol Int 80: 179–190 (2014)
[19]
Gee M G, Gant A, Hutchings I, Bethke R, Schiffman K, van Acker K, Poulat S, Gachon Y, von Stebut J. Progress towards standardisation of ball cratering. Wear 255(1–6): 1–13 (2003)
[20]
Petrica M, Katsich C, Badisch E, Kremsner F. Study of abrasive wear phenomena in dry and slurry 3-body conditions. Tribol Int 64: 196–203 (2013)
[21]
Yu R Z, Chen Y, Liu S X, Huang Z Q, Yang W, Wei W. Abrasive wear behavior of Nb-containing hypoeutectic Fe–Cr–C hardfacing alloy under the dry-sand/rubber-wheel system. Mater Res Express 6(2): 026535 (2019)
[22]
Xiao H P, Liu S H, Guo Y B, Wang D G, Chen Y. Effects of microscale particles as antiwear additives in water-based slurries with abrasives. Tribol Trans 59(2): 323–329 (2016)
[23]
Da Silva W M, Suarez M P, Machado A R, Costa H L. Effect of laser surface modification on the micro-abrasive wear resistance of coated cemented carbide tools. Wear 302(1–2): 1230–1240 (2013)
[24]
Vashishtha N, Sapate S G. Abrasive wear maps for High Velocity Oxy Fuel (HVOF) sprayed WC–12Co and Cr3C2–25NiCr coatings. Tribol Int 114: 290–305 (2017)
[25]
Kumar S, Balasubramanian V. Effect of reinforcement size and volume fraction on the abrasive wear behaviour of AA7075 Al/SiCp P/M composites—A statistical analysis. Tribol Int 43(1–2): 414–422 (2010)
[26]
Qi J W, Wang L P, Yan F Y, Xue Q J. The tribological performance of DLC-based coating under the solid–liquid lubrication system with sand-dust particles. Wear 297(1–2): 972–985 (2013)
[27]
Yakubov G E, Branfield T E, Bongaerts J H H, Stokes J R. Tribology of particle suspensions in rolling–sliding soft contacts. Biotribology 3: 1–10 (2015)
[28]
Richard Stribeck. Die Wesentlichen Eigenschaften der Gleit- und Rollenlager. Berlin (Germany): Springer Verlag, 1903. (in German)
[29]
Kalin M, Velkavrh I, Vižintin J. The Stribeck curve and lubrication design for non-fully wetted surfaces. Wear 267(5–8): 1232–1240 (2009)
[30]
Spikes H A. Some challenges to tribology posed by energy efficient technology. In: Proceedings of the 24th Leeds-Lyon Symposium on Tribology, London, 1997.
[31]
Braun D, Greiner C, Schneider J, Gumbsch P. Efficiency of laser surface texturing in the reduction of friction under mixed lubrication. Tribol Int 77: 142–147 (2014)
[32]
Greiner C, Schäfer M. Bio-inspired scale-like surface textures and their tribological properties. Bioinspiration Biomim 10(4): 044001 (2015)
[33]
Greiner C, Merz T, Braun D, Codrignani A, Magagnato F. Optimum dimple diameter for friction reduction with laser surface texturing: The effect of velocity gradient. Surf Topogr Metrol Prop 3(4): 044001 (2015)
[34]
Chen X, Schneider R, Gumbsch P, Greiner C. Microstructure evolution and deformation mechanisms during high rate and cryogenic sliding of copper. Acta Mater 161: 138–149 (2018)
[35]
Zum Gahr K H, Wahl R, Wauthier K. Experimental study of the effect of microtexturing on oil lubricated ceramic/steel friction pairs. Wear 267(5–8): 1241–1251 (2009)
[36]
Schneider J, Braun D, Greiner C. Laser textured surfaces for mixed lubrication: Influence of aspect ratio, textured area and dimple arrangement. Lubricants 5(3): 32 (2017)
[37]
Galda L, Pawlus P, Sep J. Dimples shape and distribution effect on characteristics of Stribeck curve. Tribol Int 42(10): 1505–1512 (2009)
[38]
Spikes H A. Mixed lubrication—an overview. Lubr Sci 9(3): 221–253 (1997)
[39]
Spikes H A, Olver A V. Basics of mixed lubrication. Lubr Sci 16(1): 1–28 (2003)
[40]
Liang H, Xu G H. Lubricating behavior in chemical–mechanical polishing of copper. Scripta Mater 46(5): 343–347 (2002)
[41]
Bahr M, Sampurno Y, Han R C, Philipossian A. Improvements in stribeck curves for copper and tungsten chemical mechanical planarization on soft pads. ECS J Solid State Sci Technol 6(5): 290–295 (2017)
[42]
Rovani A C, Rosso T A, Pintaude G. On the use of microscale abrasion test for determining the particle abrasivity. J Test Eval 49(1): 20180576 (2021)
[43]
Harsha A P, Tewari U S. Two-body and three-body abrasive wear behaviour of polyaryletherketone composites. Polym Test 22(4): 403–418 (2003)
[44]
Cozza R C, Tanaka D K, Souza R M. Friction coefficient and abrasive wear modes in ball-cratering tests conducted at constant normal force and constant pressure—Preliminary results. Wear 267(1–4): 61–70 (2009)
[45]
Spikes H A, Olver A V, Macpherson P B. Wear in rolling contacts. Wear 112(2): 121–144 (1986)
[46]
Wegener, K. Ploughing. In: CIRP Encyclopedia of Production Engineering. Luc L, Gunther R, Eds. Berlin (Germany): Springer Berlin Heidelberg, 2014: 1321–1327.
[47]
Lawn B, Wilshaw R. Indentation fracture: Principles and applications. J Mater Sci 10(6): 1049–1081 (1975)
[48]
Cook R F, Pharr G M. Direct observation and analysis of indentation cracking in glasses and ceramics. J Am Ceram Soc 73(4): 787–817 (1990)
[49]
Sun G, Bhattacharya S, White D R, McClory B, Alpas A T. Indentation fracture behavior of low carbon steel thermal spray coatings: Role of dry sliding-induced tribolayer. J Therm Spray Technol 27(8): 1602–1614 (2018)
[50]
Cook R F. Fracture sequences during elastic–plastic indentation of brittle materials. J Mater Res 34(10): 1633–1644 (2019)
[51]
Blickensderfer R, Tylczak J H. A large-scale impact spalling test. Wear 84(3): 361–373 (1983)
[52]
Greiner C, Liu Z L, Schneider R, Pastewka L, Gumbsch P. The origin of surface microstructure evolution in sliding friction. Scripta Mater 153: 63–67 (2018)
[53]
Haug C, Ruebeling F, Kashiwar A, Gumbsch P, Kübel C, Greiner C. Early deformation mechanisms in the shear affected region underneath a copper sliding contact. Nat Commun 11: 839 (2020)
[54]
Dollmann A, Kauffmann A, Heilmaier M, Haug C, Greiner C. Microstructural changes in CoCrFeMnNi under mild tribological load. J Mater Sci 55(26): 12353–12372 (2020)
[55]
Greiner C, Liu Z L, Strassberger L, Gumbsch P. Sequence of stages in the microstructure evolution in copper under mild reciprocating tribological loading. ACS Appl Mater Interfaces 8(24): 15809–15819 (2016)
[56]
Landgraf R.W. Cyclic Deformation and Fatigue Behavior of Hardened Steels. Urbana (USA): Department of Theoretical and Applied Mechanics (UIUC), 1968.
[57]
Bílý M. Cyclic Deformation and Fatigue of Metals. Amsterdam (the Netherlands): Elsevier Amsterdam, 1993.
[58]
Sosnovskiy L A. Tribo-Fatigue. Berlin (Germany): Springer Berlin Heidelberg, 2005.
[59]
Sciammarella C A, Chen R J S, Gallo P, Berto F, Lamberti L. Experimental evaluation of rolling contact fatigue in railroad wheels. Int J Fatigue 91: 158–170 (2016)
[60]
Brownlie F, Hodgkiess T, Galloway A M, Pearson A. Experimental investigation of engineering materials under repetitive impact with slurry conditions. Tribol Lett 69(1): 5 (2021)
[61]
Gates J D. Two-body and three-body abrasion: A critical discussion. Wear 214(1): 139–146 (1998)
[62]
Trezona R I, Allsopp D N, Hutchings I M. Transitions between two-body and three-body abrasive wear: Influence of test conditions in the microscale abrasive wear test. Wear 225–229: 205–214 (1999)
[63]
Torrance A A, d’Art J M. A study of lubricated abrasive wear. Wear 110(1): 49–59 (1986)
[64]
Ramalho A, Miranda J C. The relationship between wear and dissipated energy in sliding systems. Wear 260(4–5): 361–367 (2006)
[65]
Dante R C, Vannucci F, Durando P, Galetto E, Kajdas C K. Relationship between wear of friction materials and dissipated power density. Tribol Int 42(6): 958–963 (2009)
[66]
Bose K, Wood R J K. Optimum tests conditions for attaining uniform rolling abrasion in ball cratering tests on hard coatings. Wear 258(1–4): 322–332 (2005)
[67]
Gomez V A O, de Macêdo M C S, Souza R M, Scandian C. Effect of abrasive particle size distribution on the wear rate and wear mode in micro-scale abrasive wear tests. Wear 328–329: 563–568 (2015)