Fretting fatigue has attracted substantial research interest in recent decades owing to its relevance in a wide range of applications. This paper reviews previous studies and describes ongoing research. Particularly, only a few studies on bending fretting fatigue have been conducted. This review paper emphasizes the effect of bending fretting fatigue of different materials under different operating parameters. In addition, the damage mechanisms with respect to nature of failure of materials are also discussed. This paper can be used as a reference for design and development of modern technologies and selection of appropriate material in industries.
BethuneBWaterhouseR (1968) Adhesion of metal surfaces under fretting conditions I. Like metals in contact. Wear12(4): 289–296.
2.
ChenLWeiY (2014) Overall mechanical behavior of nanocrystalline materials accompanied by damage evolution on grain boundaries. International Journal of Damage Mechanics23(1): 25–42.
3.
ChuanfuYWZWDZenyeZ (1992) Study on spectrum load fatigue behaviors, fracture mechanism and fractography of two ultra-high strengh steels. Journal of Materials Engineering2: 004.
4.
CorteseLet al. (2014) Prediction of ductile failure in materials for onshore and offshore pipeline applications. International Journal of Damage Mechanics23(1): 104–123.
5.
DaoNHVuMN (2016) Load sequence effects on the fatigue crack growth in a cylinder subjected to combined rotary bending moment and axial force loads. Theoretical and Applied Fracture Mechanics82: 117–124.
6.
DasRRPradhanB (2014) Delamination damage analysis of laminated bonded tubular single lap joint made of fiber-reinforced polymer composite. International Journal of Damage Mechanics23(6): 772–790.
7.
DingJet al. (2014) Finite element analysis on bending fretting fatigue of 316L stainless steel considering ratchetting and cyclic hardening. International Journal of Mechanical Sciences86: 26–33.
8.
EbaraRFujimuraM (2006) Fretting fatigue behaviour of Ti–6Al–4V alloy under plane bending stress and contact stress. Tribology International39(10): 1181–1186.
9.
FolettiSBerettaSGurerG (2016) Defect acceptability under full-scale fretting fatigue tests for railway axles. International Journal of Fatigue86: 34–43.
10.
GaudinCFeaugasX (2004) Cyclic creep process in AISI 316L stainless steel in terms of dislocation patterns and internal stresses. Acta Materialia52(10): 3097–3110.
11.
GenetMMarcinLLadevezeP (2014) On structural computations until fracture based on an anisotropic and unilateral damage theory. International Journal of Damage Mechanics23(4): 483–506, DOI: 10.1177/1056789513500295.
12.
GoidescuCet al. (2015) Anisotropic unilateral damage with initial orthotropy: A micromechanics-based approach. International Journal of Damage Mechanics24(3): 313–337.
13.
GosarANagodeM (2015) Dissipated energy-based fatigue lifetime calculation under multiaxial plastic thermo-mechanical loading. International Journal of Damage Mechanics24(1): 41–58.
14.
GutkinRAlfredssonB (2008) Growth of fretting fatigue cracks in a shrink-fitted joint subjected to rotating bending. Engineering Failure Analysis15(5): 582–596.
15.
HaidyrahASNewkirkJWCastañoCH (2016) Weibull statistical analysis of Krouse type bending fatigue of nuclear materials. Journal of Nuclear Materials470: 244–250.
16.
HattoriTet al. (1988) Fretting fatigue analysis using fracture mechanics. JSME International Journal. Ser. 1, Solid Mechanics, Strength of Materials31: 100–107.
17.
HillsDNowellD (1994) Mechanics of Fretting Fatigue. Solid Mechanics and its ApplicationsVol. 30: Dordrecht: Kluwer Academic Publishers.
18.
HuangLet al. (2016a) Fatigue and fretting of mixed metal self-piercing riveted joint. International Journal of Fatigue83: 230–239.
19.
HuangYWangZZhouQ (2016b) Numerical studies on the surface effects caused by inhomogeneities on torsional fretting. Tribology International96: 202–216.
20.
HwangBKimTHanSM (2016) Compression and tension bending fatigue behavior of Ag nanowire network. Extreme Mechanics Letters. http://dx.doi.org/10.1016/j.eml.2016.02.011.
21.
IwabuchiAKayabaTKatoK (1983) Effect of atmospheric pressure on friction and wear of 0.45% C steel in fretting. Wear91(3): 289–305.
22.
JohnsonK (1995) Contact mechanics and the wear of metals. Wear190(2): 162–170.
23.
JohnsonKGreenwoodJ (1997) An adhesion map for the contact of elastic spheres. Journal of Colloid and Interface Science192(2): 326–333.
24.
KamayaM (2016) Development of disc bending fatigue test technique for equi-biaxial loading. International Journal of Fatigue82: 561–571.
25.
KingRNLindleyTC (1981) Fretting fatigue in a 3/2 Ni–Cr–Mo–V rotor steel. In: FrancosisD (ed.) In: Proceedings of ICF5, Oxford: Pergamon Press, pp. 631.
26.
KubotaMet al. (2011) Mechanism of reduction of fretting fatigue limit caused by hydrogen gas in SUS304 austenitic stainless steel. Tribology International44(11): 1495–1502.
27.
LeeHMallS (2006) Investigation into effects and interaction of various fretting fatigue variables under slip-controlled mode. Tribology International39(10): 1213–1219.
28.
LiKet al. (2016) Fretting fatigue characteristic of Ti–6Al–4V strengthened by wet peening. International Journal of Fatigue85: 65–69.
29.
LiuWet al. (2013) The performances of a thermally sprayed Fe/Ni composite coating to resist fretting fatigue under rotational bending loads. Surface and Coatings Technology217: 58–63.
30.
LuoRK (2015) Mullins damage effect on rubber products with residual strain. International Journal of Damage Mechanics24(2): 153–167.
31.
MaYet al. (2015) The bending fatigue performance of cement-stabilized aggregate reinforced with polypropylene filament fiber. Construction and Building Materials83: 230–236.
32.
MajzoobiGMinaiiK (2013) An investigation into the effect of contact geometry on the rotary bending fretting fatigue life of Al 7075-T6. Proceedings of the Institution of Mechanical Engineers, Part J: Journal of Engineering Tribology227(11): 1285–1296.
33.
MayamaTSasakiKKurodaM (2008) Quantitative evaluations for strain amplitude dependent organization of dislocation structures due to cyclic plasticity in austenitic stainless steel 316L. Acta Materialia56(12): 2735–2743.
34.
Mdzimba P (2006) Passningsrost vid pressförband. Master Thesis. Stockholm: KTH Solid Mechanics, Sweden [in Swedish].
35.
Neu RW, Pape JA and Swalla DR (2000) In: Hoeppner DW, Chandrasekaran V and Elliott CB (eds) Fretting Fatigue: Current Technology and Practices, ASTM STP 1367. West Conshohocken, PA: ASTM, 2000, pp. 369–388.
36.
NowellDDiniDHillsD (2006) Recent developments in the understanding of fretting fatigue. Engineering Fracture Mechanics73(2): 207–222.
37.
PengJet al. (2011) An experimental study on bending fretting fatigue characteristics of 316L austenitic stainless steel. Tribology International44(11): 1417–1426.
38.
PengJet al. (2014) On the damage mechanisms of bending fretting fatigue. Tribology International76: 133–141.
39.
PengJ-Fet al. (2013) Study on bending fretting fatigue damages of 7075 aluminum alloy. Tribology International59: 38–46.
40.
SavariaVBridierFBocherP (2016) Predicting the effects of material properties gradient and residual stresses on the bending fatigue strength of induction hardened aeronautical gears. International Journal of Fatigue85: 70–84.
41.
ShiLet al. (2016) An investigation of fretting fatigue in a circular arc dovetail assembly. International Journal of Fatigue82: 226–237.
42.
SongCet al. (2014) An investigation on rotatory bending fretting fatigue damage of railway axles. Fatigue & Fracture of Engineering Materials & Structures37(1): 72–84.
43.
VuQHHalmDNadotY (2014) High cycle fatigue of 1045 steel under complex loading: Mechanisms map and damage modelling. International Journal of Damage Mechanics23(3): 377–410.
44.
WahlLet al. (2013) Fatigue in the core of aluminum honeycomb panels: Lifetime prediction compared with fatigue tests. International Journal of Damage Mechanics23(5): 661–683.
45.
WinklerJGeorgakisCTFischerG (2015) Fretting fatigue behavior of high-strength steel monostrands under bending load. International Journal of Fatigue70: 13–23.
46.
XueXYangX (2014) A damage model for concrete under cyclic actions. International Journal of Damage Mechanics23(2): 155–177.
47.
YaguchiHet al. (2001) Fatigue-damage evaluation in aluminum heat-transfer tubes by measuring dislocation cell-wall thickness. Materials Science and Engineering: A315(1): 189–194.
48.
YaoWBasaranC (2013) Damage mechanics of electromigration and thermomigration in lead-free solder alloys under alternating current: An experimental study. International Journal of Damage Mechanics23(2).
49.
YangYLamCKouK (2014) Fatigue life analysis of internal circumferential crack of tubular structures. International Journal of Damage Mechanics24(5).
50.
YuanRet al. (2014) A nonlinear fatigue damage accumulation model considering strength degradation and its applications to fatigue reliability analysis. International Journal of Damage Mechanics24(5).
51.
ZalnezhadESarhanAAHamdiM (2013) Fretting fatigue life evaluation of multilayer Cr–CrN-coated Al7075-T6 with higher adhesion strength—fuzzy logic approach. The International Journal of Advanced Manufacturing Technology69(5–8): 1153–1164.
52.
ZalnezhadESarhanAAJahanshahiP (2014) A new fretting fatigue testing machine design, utilizing rotating–bending principle approach. The International Journal of Advanced Manufacturing Technology70(9–12): 2211–2219.
ZhuHet al. (2016) A two-dimensional micromechanical damage–healing model on microcrack-induced damage for microcapsule-enabled self-healing cementitious composites under compressive loading. International Journal of Damage Mechanics25(5).
