Thermo-hydrodynamic analysis of herringbone grooved journal bearings

Tribology International

Volumn 39, Issue 11, 2006, Pages 1395-1404

  Sahu, M ^a   Sarangi, M ^a   Majumdar, B C ^a  

^a INDIAN INSTITUTE OF TECHNOLOGY   (India)

Author keywords

Herringbone grooved journal bearing; Stability analysis; Thermal effect

Indexed keywords

DAMPING; HEAT CONDUCTION; HYDRODYNAMICS; REYNOLDS NUMBER; STIFFNESS; THERMAL EFFECTS;

DAMPING COEFFICIENTS; HERRINGBONE GROOVED JOURNAL BEARING; NUMERICAL INSTABILITY; STABILITY ANALYSIS;

JOURNAL BEARINGS;

EID: 33746924044     PISSN: 0301679X     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.triboint.2005.11.022     Document Type: Article

References (16)

1. Zienkiewicz O. Temperature distribution with in lubricating film between parallel bearing surfaces and its effects on the pressures developed. Proc Conf Lub Wear Inst Engrs 28 (1958) 135-141
2. Dowson D. A generalized Reynolds equation for fluid film lubrication. Int J Mech Sci 4 (1962) 159-170
3. Majumdar B.C. The thermodynamic solution of oil journal bearing. Wear 31 (1975) 287-294
4. Ferron J., Frene J., and Boncompain R. A study of thermo-hydrodynamic performance of a plain journal bearing comparison between theory and experiments. Trans ASME J Lub Technol 105 (1983) 422-428
5. Ramesh J., Majumdar B.C., and Rao N.S. Non-linear transient analysis of submerged oil journal bearings considering surface roughness and thermal effects. J Eng Tribol Proc Inst Mech Engrs London (Part J) 209 (1995) 53-61
6. Banwait S.S., and Chandrawat H.N. Study of thermal boundary conditions for a plain journal bearing. Tribol Int 31 (1998) 189-196
7. Vohr J.H., and Chow C.Y. Characteristics of herringbone grooved gas lubricated journal bearings. ASME J. Basic Eng 87 (1965) 568-578
8. Hirs G.G. The load capacity and stability characteristics of hydrodynamic grooved journal bearings. ASLE Trans 8 (1965) 296-305
9. Absi J., and Bonneau D. Analysis of aerodynamic journal bearings with small number of herringbone grooves by finite element method. ASME J Tribol 116 (1994) 698-704
10. Kang K., Rhim Y., and Sung K. A study of the oil-lubricated herringbone grooved journal bearing-Part 1: Numerical analysis. ASME J Tribol 118 (1996) 906-911
11. San Andres L., and Zirkelback N. Finite element analysis of herringbone grooved journal bearings: a parametric study. ASME J Tribol 120 (1998) 234-240
12. Jang G.H., and Chang D.I. Analysis of a hydrodynamic herringbone grooved journal bearing considering cavitations. ASME J Tribol 122 (2000) 103-109
13. Jang G.H., and Yoon J.W. Nonlinear dynamic analysis of a hydrodynamic journal bearing due to the effect of a rotating or stationary herringbone groove. ASME J Tribol 124 (2002) 297-304
14. Jang G.H., and Yoon J.W. Stability analysis of a hydrodynamic journal bearing with rotating herringbone grooves. ASME J Tribol 125 (2003) 291-304
15. Sawicki J.T., and Rao T.V.V.L.N. Stability characteristics of herringbone grooved journal bearings incorporating cavitation effects. ASME J Tribol 126 (2004) 281-287
16. Christopherson D.G. A new mathematical method for the solution of film lubrication problems. Proc Inst Mech Engrs 161 (1941) 59-64