Viscoelastic Parameter Identification based Structure-Thermal Analysis of Rubber Bushing

1
Haiyan H Zhang
Haiyan H Zhang
2
Zhengui Zhang
Zhengui Zhang
1 Purdue University, US

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Rubber bushing, working as flexible connection parts or vibration isolators, is widely used in commercial vehicles, airplane, and off-highway transportation. The appropriate mathematical modeling of it in proper vehicle simulation is becoming more and more demanding recently. This paper focuses on viscoelastic parameter identification based structure-thermal analysis of rubber bushing so that credible predictions of mechanical behaviors and thermal effects of rubber bushing during service can be made. The dynamic mechanical property is characterized as frequency-dependent and the corresponding parameters’ identifications are carried out through experiment on DMA. A novel approach to estimating the hysteresis damping is proposed on the basis of interaction between carbon black and molecular chain. The quasistatic harmonic excitation tests are carried out to catch the amplitude-dependent hysteresis damping. FEA simulation is employed to predict the rubber’s dynamic response and thermal effect under harmonic excitation with the collected parameters demonstrating mechanical properties.

21 Cites in Articles

References

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  2. Garcia Tarrago,M Gil-Negrete,N Vinolas,J (2009). Viscoelastic models for rubber mounts: influence on the dynamic behaviour of an elastomeric isolated system.
  3. K Knothe,S Grassie (1993). Modelling of railway track and vehicle/track interaction at high frequencies.
  4. N Gil-Negrete,J Vinolas,L Kari (2006). A simplified methodology to predict the dynamic stiffness of carbon-black filled rubber isolators using a finite element code.
  5. Robert Luo,Xiaoping Wu,William Mortel (2013). Dynamic simulation studies and experiments on rubber structures used in rail vehicles.
  6. J Kadlowec,A Wineman,G Hulbert (2003). Elastomer bushing response: experiments and finite element modeling.
  7. J Bergström,M Boyce (1998). Constitutive modeling of the large strain time-dependent behavior of elastomers.
  8. G Dean,J Duncan,A Johnson (1984). Determination of non-linear dynamic properties of carbon-filled rubbers.
  9. A Medalia (1978). Effect of Carbon Black on Dynamic Properties of Rubber Vulcanizates.
  10. C Roland (1990). Dynamic mechanical behavior of filled rubber at small strains.
  11. Xiao Pan,Guo Chai (2009). Modelling of rubber mounts and applications for time response analysis of dynamic systems including elastomerics.
  12. H Sayyaadi,N Shokouhi (2009). A new model in railvehicles dynamics considering nonlinear suspension components behavior.
  13. M Kaliske,H Rothert (1998). Constitutive approach to rate-independent properties of filled elastomers.
  14. M Berg (1998). A non-linear rubber spring model for rail vehicle dynamics analysis.
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  18. L Mullins (1969). Softening of Rubber by Deformation.
  19. E Dannenberg (1975). The Effects of Surface Chemical Interactions on the Properties of Filler-Reinforced Rubbers.
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Funding

No external funding was declared for this work.

Conflict of Interest

The authors declare no conflict of interest.

Ethical Approval

No ethics committee approval was required for this article type.

Data Availability

Not applicable for this article.

Haiyan H Zhang. 2014. \u201cViscoelastic Parameter Identification based Structure-Thermal Analysis of Rubber Bushing\u201d. Global Journal of Research in Engineering - B: Automotive Engineering GJRE-B Volume 14 (GJRE Volume 14 Issue B3): .

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Journal Specifications

Crossref Journal DOI 10.17406/gjre

Print ISSN 0975-5861

e-ISSN 2249-4596

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v1.2

Issue date

October 16, 2014

Language

English

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Rubber bushing, working as flexible connection parts or vibration isolators, is widely used in commercial vehicles, airplane, and off-highway transportation. The appropriate mathematical modeling of it in proper vehicle simulation is becoming more and more demanding recently. This paper focuses on viscoelastic parameter identification based structure-thermal analysis of rubber bushing so that credible predictions of mechanical behaviors and thermal effects of rubber bushing during service can be made. The dynamic mechanical property is characterized as frequency-dependent and the corresponding parameters’ identifications are carried out through experiment on DMA. A novel approach to estimating the hysteresis damping is proposed on the basis of interaction between carbon black and molecular chain. The quasistatic harmonic excitation tests are carried out to catch the amplitude-dependent hysteresis damping. FEA simulation is employed to predict the rubber’s dynamic response and thermal effect under harmonic excitation with the collected parameters demonstrating mechanical properties.

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Viscoelastic Parameter Identification based Structure-Thermal Analysis of Rubber Bushing

Zhengui Zhang
Zhengui Zhang
Haiyan H Zhang
Haiyan H Zhang Purdue University, US

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