A new method of representation of fiber creep data tensile creep behavior of some acrylic fibers

Ripa, O.; Schneider, W. G.

doi:10.1007/bf01968735

Rheol Acta

1965

DOI: 10.1007/bf01968735

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A new method of representation of fiber creep data tensile creep behavior of some acrylic fibers

O. Ripa

W. G. Schneider

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1968

2022

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Cited by 2 publications

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“…Yamaguchiy 5 tested the tensile creep properties of cotton, hemp, silk, wool and other fibers, indicating that the tensile creep of fibers is related to time and stress. By associating the creep rate with the relative fiber length or elongation, Ripa and Schneider 6 found the common characteristics of the creep of a single fiber. In the method of expressing creep data proposed, the creep rate is related to elongation at constant time and temperature.…”

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confidence: 99%

Research on creep modeling and simulation of cotton fiber assembly based on the three-dimensional discrete element

Sun

Chen

et al. 2022

Textile Research Journal

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In order to analyze the mesoscopic contact characteristics of cotton fiber creep, this paper uses the meso-particle discrete element method to establish a cotton fiber assembly creep microscopic model based on the existing cotton fiber creep experiment. The microscopic parameters of the Particle Flow Code contact constitutive model are calibrated according to the macroscopic mechanical indexes of cotton fiber creep obtained from experiments, and the creep strain of the cotton fiber in the instantaneous creep stage under different compressive stresses and the contact force between particles are analyzed. According to the time–temperature equivalence principle, the calculation efficiency of the viscoelastic discrete element model is optimized, which improves the time scale of the simulation test. The results show that the numerical simulation results accord with the variation characteristics of the experimental creep variables, which verifies the feasibility of the method in this paper. The research results can provide a certain reference for the deeper study of cotton fiber creep characteristics and its mechanism.

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confidence: 99%

Research on creep modeling and simulation of cotton fiber assembly based on the three-dimensional discrete element

Sun

Chen

et al. 2022

Textile Research Journal

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Investigation into the ultimate tensile strength of laminated silage fibres

Willcocks¹

1968

Journal of Agricultural Engineering Research

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A new method of representation of fiber creep data tensile creep behavior of some acrylic fibers

Cited by 2 publications

References 10 publications

Research on creep modeling and simulation of cotton fiber assembly based on the three-dimensional discrete element

Research on creep modeling and simulation of cotton fiber assembly based on the three-dimensional discrete element

Investigation into the ultimate tensile strength of laminated silage fibres

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