4.5 Article

Creep and Stress Relaxation Performance of Rubber Matrix Sealing Composites after Fatigue Loading

Journal

FIBERS AND POLYMERS
Volume 23, Issue 2, Pages 471-477

Publisher

KOREAN FIBER SOC
DOI: 10.1007/s12221-021-3207-8

Keywords

Fiber reinforced composite; Rubber; Fatigue; Creep; Stress relaxation

Funding

  1. National Natural Science Foundation of China [51705037]
  2. Scientific Research Foundation for Advanced Talents [XZ1633]
  3. Natural Science Foundation of the Jiangsu Higher Education Institutions of China [19KJB130002]
  4. Six Talent Peaks high-level talent projects [GDZB-061, GDZB-063]

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This study investigates the mechanical properties of short fiber reinforced rubber matrix sealing composites (SFRC) through experimental methods, revealing the effects of fatigue cycles on material damage and determining the corresponding damage modes. Based on macroscopic phenomena and microscopic mechanism, parameters of new creep and stress relaxation models for SFRC after different fatigue cycles are established, showing that phenomenological models can effectively characterize the fatigue behavior of SFRC.
The most common working condition in the static seal connection system is load fluctuation. The failure mechanism of sealing material caused by load fluctuation is more complicated than that under static load. This work develops an experimental method to research mechanical property of short fiber reinforced rubber matrix sealing composites (SFRC). The damage behavior of creep and stress relaxation after different fatigue cycles is obtained. The microscopic defects are observed and analyzed by scanning electron microscope (SEM). The effects of different fatigue cycles on the damage of materials are found, and the damage modes of SFRC are determined. Based on macroscopic phenomena and microscopic mechanism, the parameters of new creep and stress relaxation models of SFRC after different fatigue cycles are determined, respectively. It can be found that the phenomenological model can well characterize fatigue behavior of SFRC.

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