Damping Performance of Material Candidates for Service at 350K

Abstract:

Vibration systems require the damping materials operating at high service temperature. In this paper, damping performance of HT100, M2052 and S316L at 350K were evaluated by applying different frequencies, strain amplitudes and heating rates. It is found that the internal friction dependence of frequency of HT100, M2052 and S316L all show a characteristic of Check function, and the resonance frequency has a negative linear correlation with the material physical parameters. The strain amplitude as well as heating rate has no obvious effect on the resonance frequencies of the materials, but significantly enhance the internal friction of the interface damping alloys such as M2052 and HT100, but small on single-phase alloys such as S316L. The internal friction mechanism for HT100 and M2052 are of static hysteresis at 350K, and HT100 and M2052 are applicable candidates for working at temperatures around 350K from the viewpoint of vibration reduction.

• Periodical: Solid State Phenomena (Volume 315)
• Pages: 43-49
• DOI: https://doi.org/10.4028/www.scientific.net/SSP.315.43
• Online since: March 2021
• Authors: Si Bin Zhang, Ze Chao Jiang, Qing Chao Tian*
• Keywords: Damping Performance, Heating Rate, Resonance Frequency, Strain Amplitude

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