Fretting fatigue produces a smaller lowering of the fatigue strength of a 0·7 per cent C steel when the surface is decarburized than when the steel is cold-worked. The rapid rate of abrasion of the decarburized surface results in large amounts of oxide debris which prevents metal-to-metal contact. The cold-worked steel has a low fretting fatigue strength because of its greater susceptibility to high strain fatigue.
ForrestG.The fatigue of metals, 1955 (Instn Metallurgists, London).
3.
WaterhouseR. B.BrookP. A.LeeG. M. C.‘The effect of electrodeposited metals on the fatigue behaviour of mild steel under conditions of fretting corrosion’, Wear19625, 253.
4.
WaterhouseR. B.‘Influence of local temperature increases on the fretting corrosion of mild steel’, J. Iron Steel Inst.1961197, 301.
5.
BethuneB.WaterhouseR. B.‘Adhesion between fretting steel surfaces’, Wear19658, 22.
6.
HallidayJ. S.HirstW.‘The fretting corrosion of mild steel’, Proc. R. Soc.1956A236, 411.
7.
FieldJ. E.WatersD. M.‘Fretting fatigue strength of En 26 steel’, NEL Report No. 275, 1967 (February).
8.
RayM. J.SachsK.‘The effect of decarburization on the fatigue and thread stripping properties of bolt threads’, Assembly and Fastener Engng1970 Part 1, 44; Part 2, 35.
9.
FrostN. E.GreenanA. F.‘Effect of a tensile mean stress on the alternating stress required to propagate an edge-crack in various materials’, J. mech. Engng Sci.197012 (No. 3), 159.
10.
FennerA. J.FieldJ. E.‘Fatigue under fretting conditions’, Revue Metall., Paris195855 (No. 5), 475. (English version in NEL AB Div. 16/57.).
11.
JohnsonK. L.O'ConnorJ. J.‘Mechanics of fretting’, Proc. Instn mech. Engrs1963–64178 (Pt 3J), 7.
12.
WaterhouseR. B.‘Fretting corrosion’, Proc. Instn mech. Engrs1955169, 1157.
13.
HurricksP. L. ‘The fretting wear of mild steel, room temperature to 200°C (to be published in Wear).
14.
RabinowiczE.Friction and wear of materials1965 (John Wiley and Sons, New York and Chichester).
15.
StarkeyW. L.CollinsJ. A.‘Fatigue tests of titanium alloy and SAE steel specimens’, Ohio Univ. Tech. Repts No. 33, 1, AD 88906, 1955 (December); No. 34, 4, AD 91625, 1956 (January); No. 35, 3, AD 93187, 1956 (March).
16.
WalkerP. B.‘Fretting in the light of aircraft experience’, Jl R. aeronaut. Soc.195963, 293.
17.
HurricksP. L.‘The mechanism of fretting—a review’, Wear197015, 389.
18.
NishiokaK.HirakawaK.‘Fundamental investigations of fretting fatigue; Part 2, Fretting fatigue test machine and some test results’, Bull. J.S.M.E.196912 (No. 50), 180.
19.
WaterhouseR. B.TaylorD. E.‘The initiation of fatigue in cracks a 0·7 per cent carbon steel by fretting’, Wear197117 (No. 2), 139.
20.
MilestoneW. D.‘An investigation of the basic mechanisms of mechanical fretting and fretting-fatigue at metal-to-metal joints with emphasis on the effects of friction and friction induced stresses’, Ph.D. Dissertation, Ohio State University 1966 (University Microfilms Inc., Ann Arbor, Michigan).
21.
MilestoneW. D.‘Fretting and fretting fatigue in metal-to-metal contacts’, A.S.M.E. Paper No. 71-DE-38, 1971.
22.
MilestoneW. D.JaneczkoJ. T.‘Friction between steel surfaces during fretting’, Wear197118 (No. 1), 318.
23.
FennerA. J.FieldJ. E.‘A study of the onset of fatigue damage due to fretting’, Trans. NE Cst Instn Engrs Shipbldrs1959–6076, 183.
24.
EndoT.MorrowJ.‘Cyclic stress-strain and fatigue behavior of representative aircraft materials’, J. Materials19694 (No. 1), 159.
NishimuraK.HirakawaK.‘Fundamental investigations of fretting fatigue; Part 1, The relative slip amplitude of press-fitted assemblies’, Bull. J.S.M.E.196811 (No. 45), 437.
27.
NishiokaK.HirakawaK.‘Fundamental investigations of fretting fatigue; Part 3, Some phenomena and mechanisms of surface cracks’, Bull. J.S.M.E.196912 (No. 51), 397.
28.
NishiokaK.HirakawaK.‘Fundamental investigations of fretting fatigue; Part 4, The effect of mean stress’, Bull. J.S.M.E.196912 (No. 51), 408.
29.
NishiokaK.HirakawaK.‘Fundamental investigations of fretting fatigue; Part 5, The effect of relative slip amplitude’, Bull. J.S.M.E.196912 (No. 51), 692.
30.
NishiokaK.HirakawaK.Trans. Japan Soc. mech. Engrs197137 (No. 298), 1051 (in Japanese).
31.
WaterhouseR. B.AlleryM.‘The effect of powders in petrolatum on the adhesion between fretted steel surfaces’, A.S.L.E. Trans.19669, 179.
32.
WaterhouseR. B.‘An assessment of the fretting fatigue damage produced on mild steel by certain non-ferrous metals and alloys’, Proc. Instn mech. Engrs1964–65179 (Pt 3J), 258.
33.
WaterhouseR. B.AlleryM.‘The effect of non-metallic coatings on the fretting corrosion of mild steel’, Wear19658, 112.
34.
LiuH. W.CortenH. T.SinclairG. M.‘Fretting fatigue strength of titanium alloy RC 1308’, Proc. Am. Soc. Test. Mater.195757, 623.
35.
EndoK.KomaiK.GotoH. Private communication.
36.
WaterhouseR. B.‘The effect of fretting corrosion in fatigue crack initiation’, Proc. 1st Internat. Conf. corrosion fatigue (to be published by the National Association of Corrosion Engineers, Houston, Texas).