Manufacturing Technology Today

Open Access Open Access  Restricted Access Subscription Access
Open Access Open Access Open Access  Restricted Access Restricted Access Subscription Access

Experimental and Theoretical Investigations of Heat Generation in Radial Ball Bearing


Affiliations
1 Department of Mechanical Engineering, N.B.K.R. Institute of Science & Technology, Vidyanagar, India
2 Department of Mechanical Engineering, S.V. University, Tirupati
     

   Subscribe/Renew Journal


The usefulness of a radial ball bearing (RBB) is to support radial loads and to reduce the rotational friction. However, during its operating conditions, an unanticipated and vicious heating of balls in radial ball bearing takes place which results in degradation of its performance as well as accuracy. For this reason, it is important to calculate the heat generation in the bearings because if generated heat is not dissipated from the bearing surface, causes a temperature rise in inner race and gives rise to premature failure. In the present work, experimentally, heat generation is calculated by varying the bearing failure parameters such as external load, load position, and rotational speed. Furthermore, a theoretical model for estimation of heat generation in the radial ball bearing is proposed. Later, a correlation between the experimental and theoretical model is carried out. Ultimately, the proposed model reveals that it demonstrates better in estimating heat generation up to 0.45 m of load position without cooling condition. On the other hand, the predicted heat generation above 1.8 N of the external load has a minimal deviation with experimental values at with cooling condition. A better agreement observed between experimental results and the theoretical model.

Keywords

RBB, Heat Generation, External Load, Load Position.
User
Subscription Login to verify subscription
Notifications
Font Size

  • Bryan JB. International status of thermal error research. CIRP Annals. 1990; 39(1): 56-645.

  • Bossmanns B, Tu J.F. A thermal model for high speed motorized spindles. International Journal of Machine Tools and Manufacturing. 1999; 39:1345-1366.

  • Bossmanns B, Tu J.F. A power flow model for high speed motorized spindles- heat generation characterization. Journal of Manufacturing Science and Engineering. 2001; 123:494-505.

  • Li H, Shin Y.C. Integrated dynamic thermosmechanical modeling of high speed spindles, Part1: model development. Journal of Manufacturing Science and Engineering. 2004; 126: 148-158.

  • Jin C, Wu B, Hu Y. Heat generation modeling of ball bearing based on internal load distribution. Journal of Tribology. 2011; 45:8-15.

  • Moorthy RS, RajaVP. An improved analytical model for prediction of heat generation in angular contact ball bearing. Arab Journal of Science and Engineering. 2014; 39:8111-8119.

  • Takabi J, Khonsari MM. Experimental testing and thermal analysis of ball bearings. Journal of Tribology. 2013; 60: 93-103.

  • Mitrovic RM, Atanasovska ID, Soldat ND, Momcilovic DB. Effects of operation temperature on thermal expansion and main parameters of radial ball bearings. Thermal Science. 2015; 19 (5):1835-1844.

  • Dong Y, Zhou Z, Liu Z, Zheng K. Temperature field measurement of spindle ball bearing under radial force based on fiber Bragg grating sensors. Advances in Mechanical Engineering. 2015; 7(12):1–6.

  • Li W, Tan QC. Thermal Characteristic Analysis and Experimental Study of a Spindle-Bearing System. Entropy. 2016; 18(271):1-25.

  • William MH, Todd AB, Shawn TF. RollingElement Bearing Heat Transfer. Journal of Tribology. 2015; 37:1-13.

  • Nicola DL, Amir K, Piet L, Philippa C. The influence of bearing grease composition on friction in rolling/sliding concentrated contacts. Journal of Tribology. 2016; 94:624–632.

  • Wei G, Hongrui C, Zhengjia H and laithao Y. Fatigue life analysis of rolling bearings based on quasistatic modeling. Shock and Vibration. 2015; 1-10.

  • Wiliam MH. Rolling-Element Bearing Heat Transfer—Part II: Housing, Shaft, and Bearing Raceway Partial Differential Equation Solutions. Journal of Tribology. 2015; 37:031103-1.

  • Jeng YR, Huang PY. prediction of temperature rise for ball bearing. Journal of Tribiology. 2003; 46(1):49-56.

  • Siyuan A, Wang W, Wang Y, Ziqiang Z. Temperature rise of double-row tapered roller bearings analyzed with the thermal network method. Tribology International. 2015; 87:1122.

  • Hitonobu K, Katsuyuki K, Koshiro M, Shi X, Oyama S, Kashima Y. Wear of Hybrid radial bearings (PEEK ring- PTFE retainer and alumina balls). Tribology International. 2015; 90:77-83.

  • Chen X, Hoyland K, Ji S. The determination of heat transfer coefficient on water-ice surface in a free convection. Proceeding of the 24th International Conference on Port and Ocean Engineering under Arctic Conditions. 2017


Abstract Views: 261

PDF Views: 0




  • Experimental and Theoretical Investigations of Heat Generation in Radial Ball Bearing

Abstract Views: 261  |  PDF Views: 0

Authors

G. Maheedhara Reddy
Department of Mechanical Engineering, N.B.K.R. Institute of Science & Technology, Vidyanagar, India
V. Diwakar Reddy
Department of Mechanical Engineering, S.V. University, Tirupati
T. N. Deepu Kumar
Department of Mechanical Engineering, N.B.K.R. Institute of Science & Technology, Vidyanagar, India

Abstract


The usefulness of a radial ball bearing (RBB) is to support radial loads and to reduce the rotational friction. However, during its operating conditions, an unanticipated and vicious heating of balls in radial ball bearing takes place which results in degradation of its performance as well as accuracy. For this reason, it is important to calculate the heat generation in the bearings because if generated heat is not dissipated from the bearing surface, causes a temperature rise in inner race and gives rise to premature failure. In the present work, experimentally, heat generation is calculated by varying the bearing failure parameters such as external load, load position, and rotational speed. Furthermore, a theoretical model for estimation of heat generation in the radial ball bearing is proposed. Later, a correlation between the experimental and theoretical model is carried out. Ultimately, the proposed model reveals that it demonstrates better in estimating heat generation up to 0.45 m of load position without cooling condition. On the other hand, the predicted heat generation above 1.8 N of the external load has a minimal deviation with experimental values at with cooling condition. A better agreement observed between experimental results and the theoretical model.

Keywords


RBB, Heat Generation, External Load, Load Position.

References