This paper is a state-of-the-art report on recent thermohydrodynamic analyses and designs of journal and thrust bearings. Recent papers published in journals and proceedings on tribology mostly in the 1990s are referred to. Bearings not only for turbomachinery but also for automotive engines are covered.
DowsonD.A generalised Reynolds equation for fluid film lubricationInt. Mech. Sci., 1962, 4, 159–170.
2.
TaniguchiS.MakinoT.TakeshitaK.IchimuraT.A thermohydrodynamic analysis of large tilting-pad journal bearing in laminar and turbulent flow regimes with mixingTrans. ASME, J. Tribology, 1990, 112, 542–550.
3.
NgC. W.PanC. H. T.A linearised turbulent lubrication theoryTrans. ASME, J. Basic Engng, 1965, 87, 675–688.
4.
TaniguchiS.MakinoT.OzawaY.IchimuraT.A thermohydrodynamic lubrication analysis to design large two-pad journal bearing with cooling ditchesTrans. ASME, J. Tribology, 1998, 120, 214–220.
5.
BouardL.FillonM.FreneJ.Thermohydrodynamic analysis of tilting-pad journal bearings operating in turbulent now regimeTrans. ASME, J. Tribology, 1996, 118, 225–231.
6.
BouardL.FillonM.FreneJ.Comparison between three turbulent models—application to thermohydrodynamic performances of tilting pad journal bearingsTribology Int., 1996, 29, 11–18.
7.
El-DeihiM. K.I.GethinD. T.A thermohydrodynamic analysis of a twin axial groove bearing under different loading directions and comparison with experimentTrans. ASME, J. Tribology, 1992, 114, 304–310.
8.
FillonM.BligondJ. C.FreneJ.Experimental study of tilting-pad journal bearings—comparison with theoretical thermoelastohydrodynamic resultsTrans. ASME, J. Tribology, 1992, 114, 579–588.
9.
BasriS. B.GethinD. T.An experimental investigation into the thermal behaviour of a three-lobe profile bore bearingTrans. ASME, J. Tribology, 1993, 115, 152–159.
10.
SimmonsJ.DixonS.Effect of load direction, preload, clearance ratio and oil flow on the performance of a 200 mm journal pad bearingTribology Trans., 1994, 37, 227–236.
11.
SimmonsJ. E.L.LawrenceC. D.Performance experiments with a 200 mm, offset pivot journal pad bearingTribology Trans., 1996, 39, 969–973.
12.
BouchouleC.FillonM.NicolasD.BarretF.Experimental study of thermal effects in tilting-pad journal bearings at high operating speedsTrans. ASME, J. Tribology, 1996, 118, 532–537.
13.
MakinoT.MorohoshiS.TaniguchiS.Thermo-hydrodynamic performance of high-speed journal bearingsProc. Instn Mech. Engrs, Part J, Journal of Engineering Tribology, 1996, 210 (J3), 179–187.
14.
MaM.-T.TaylorC. M.A comparative thermal analysis of the static performance of different fixed profile bore plain bearingsProc. Instn Mech. Engrs, Part J, Journal of Engineering Tribology, 1999, 213 (J1), 13–30.
15.
AndresSan L.JacksonM. C.Measurements of the static load (on pad) performance and pad temperature in a flexure-pivot tilting-pad bearingTribology Trans., 1998, 41, 225–232.
16.
VijayaraghavanD.BreweD. E.Effect of rate of viscosity variation on the performance of journal bearingsTrans. ASME, J. Tribology, 1998, 120, 1–7.
17.
KimK. W.RodkiewiczC. M.On the thermal effects in the design of tilting-pad bearings subjected to inlet pressure build-upTrans. ASME, J. Tribology, 1991, 113, 526–532.
18.
HaH. C.KimH. J.KimK. W.Inlet pressure effects on the thermohydrodynamic performance of a large tilting pad journal bearingTrans. ASME, J. Tribology, 1995, 117, 160–165.
19.
TanakaM.Thermohydrodynamic performance of a tilting pad journal bearing with spot lubricationTrans. ASME, J. Tribology, 1991, 113, 615–619.
20.
DmochowskiW.BrockwellK.DeCamilloS.MikulaA.A study of the thermal characteristics of the leading edge groove and conventional tilting pad journal bearingsTrans. ASME, J. Tribology, 1993, 115, 219–226.
21.
HarangozoA.StolarskiT.GodzawaR.The effect of different lubrication methods on the performance of a tilting-pad journal bearingTribology Trans., 1991, 34, 529–537.
22.
GomiciagaR.KeoughP. S.Orbit induced journal temperature variation in hydrodynamic bearingsTrans. ASME, J. Tribology, 1999, 121, 77–84.
23.
KhonsariM. M.WangS. H.On the maximum temperature in double-layered journal bearingsTrans. ASME, J. Tribology, 1991, 113, 464–469.
24.
KnightJ.GhadimiP.Effects of modified effective length models of the rupture zone on the analysis of a fluid journal bearingTribology Trans., 1992, 35, 29–38.
25.
MaM. T.TaylorC.Prediction of temperature fade in the cavitation region of two-lobe journal bearingsProc. Instn Mech. Engrs, Part J, Journal of Engineering Tribology, 1994, 208 (J2), 133–139.
26.
KhonsariM. M.WangS. H.On the fluid-solid interaction in reference to thermoelastohydrodynamic analysis of journal bearingsTrans. ASME, J. Tribology, 1991, 113, 398–404.
27.
TanakaM.HatakenakaK.Thermohydrodynamic analysis of journal bearings with partial reverse flow in the film. In Proceedings of the JAST Tribology Conference, Kanazawa, Japan, 1994, pp. 82–84.
28.
VijayaraghavanD.An efficient numerical procedure for thermohydrodynamic analysis of cavitating bearingsTrans. ASME, J. Tribology, 1996, 118, 555–563.
29.
ElrodH. G.Efficient numerical method for computation of the thermohydrodynamics of laminar lubricating filmsTrans. ASME, J. Tribology, 1991, 113, 506–511.
30.
KimJ.PalazzoloA.GandagiR.TEHD analysis for tilting-pad journal bearings using upwind finite element methodTribology Trans., 1994, 37, 771–783.
31.
TuckerP. G.KeoughP. S.A generalized computational fluid dynamics approach for journal bearing performance predictionProc. Instn Mech. Engrs, Part J, Journal of Engineering Tribology, 1995, 209 (J2), 99–108.
32.
BranaganL. A.BarrettL. E.Influence of cross-film viscosity variation on conduction effects in journal bearingsTribology Trans., 1998, 41, 513–518.
33.
KhonsariM. M.JangJ. Y.FillonM.On the generalization of thermohydrodynamic analysis for journal bearingsTrans. ASME, J. Tribology, 1996, 118, 571–589.
34.
PliakasP.ParkinsD. W.Single-axial groove journal bearings: Static characteristics and a temperature prediction techniqueProc. Instn Mech. Engrs, Part J, Journal of Engineering Tribology, 1996, 210 (J1), 45–54.
35.
FillonM.KhonsariM.Thermohydrodynamic design charts for tilting-pad journal bearingsTrans. ASME, J. Tribology, 1996, 118, 232–238.
36.
TanakaM.Discussion on reference [35]Trans. ASME, J. Tribology, 1996, 118, 702–703.
37.
KeoughP. S.GomiciagaR.KhonsariM. M.CFD based design techniques for thermal prediction in a generic two-axial groove hydrodynamic journal bearingTrans. ASME, J. Tribology, 1997, 119, 428–436.
38.
WilsonW. R. D.A framework for thermohydrodynamic lubrication analysisTrans. ASME, J. Tribology, 1998, 120, 399–405.
39.
MonmousseauP.FillonM.FreneJ.Transient thermoelastohydrodynamic study of tilting-pad journal bearings—comparison between experimental data and theoretical resultsTrans. ASME, J. Tribology, 1997, 119, 401–407.
40.
MonmousseauP.FillonM.FreneJ.Transient thermoelastohydrodynamic study of tilting-pad journal bearings—application to bearing sizeTrans. ASME, J. Tribology, 1998, 120, 319–324.
41.
YangJ. Y.KhonsariM. M.PascoviciM. D.Thermohydrodynamic seizure: Experimental and theoretical analysisTrans. ASME, J. Tribology, 1998, 120, 8–15.
42.
ParanjpeR. S.HanT.A transient thermohydrodynamic analysis including mass conserving cavitation for dynamically loaded journal bearingTrans. ASME, J. Tribology, 1995, 117, 369–378.
43.
ParanjpeR. S.A study of dynamically loaded engine bearings using a transient thermohydrodynamic analysisTribology Trans., 1996, 39, 636–644.
44.
SuzukiS.OzasaT.YamamotoM.NozawaY.NodaT.OhoriM.Temperature distribution and lubrication characteristics of connecting rod big end bearingsSAE Trans., 1995, 952550, 2025–2034.
45.
SuzukiS.OzasaT.NodaT.KonomiT.Effect of oil supply rate on temperature and contact of a con-rod big end bearingProc. J. SAE, 1996, 9638789, 133–136.
46.
EttlesC. M.AndersonH. G.Three-dimensional thermoelastic solutions of thrust bearings using Code MarmaclTrans. ASME, J. Tribology, 1991, 113, 405–412.
47.
EttlesC. M.Some factors affecting the design of spring supported thrust bearings in hydroelectric generatorTrans. ASME, J. Tribology, 1991, 113, 626–632.
48.
BrockettT. S.BarrettL.AllaireP. E.Thermo-elasto-hydrodynamic analysis of fixed geometry thrust bearings including runner deformationTribology Trans., 1996, 39, 555–562.
49.
TanakaM.HoriY.EbinumaR.Measurement of the film thickness and temperature profiles in a tilting pad thrust bearing. In Proceedings of the International Tribology Conference, Tokyo, Japan, 1985, 553–558.
50.
KimK. W.TanakaM.HoriY.An experimental study on the thermohydrodynamic lubrication of tilting-pad thrust bearingsJ. JAST, 1995, 40, 70–77.
51.
KimK. W.TanakaM.HoriY.A three-dimensional thermohydrodynamic performance of sector-shaped, tilting-pad thrust bearingsTrans. ASME, J. Lubric. Technol., 1983, 105, 406–413.
52.
UnoS.AndohM.NambaS.MukaiK.Overview of recent tendencies in thrust bearings for hydrogeneratorsJ. JAST, 1997, 42, 129–135.
53.
BassaniR.CiulliE.ForteP.An investigation on thrust bearing tilting padsProc. Instn Mech. Engrs, Part J, Journal of Engineering Tribology, 1998, 212 (J4), 271–277.
54.
JangJ. Y.KhonsariM. M.Thermohydrodynamic design charts for slider bearingsTrans. ASME, J. Tribology, 1997, 119, 733–740.
55.
ZhangJ. X.RodkiewiczC. M.On the design of thrust bearings using a CFD techniqueTribology Trans., 1997, 40, 403–412.
56.
TorS.TanakaM.Experimental investigation of the effect of shaft heating and cooling on single bore journal bearing. In Proceedings of the Nordtrib, 1996, Vol. II.
57.
TorS.TanakaM.Thermohydrodynamic performance of journal bearings with external heat source being considered (2nd report). In Proceedings of JAST Tribology Conference, Kita-Kyushu, Japan, 1996, pp. 81–83.