Transient analysis of diffusion-induced stress for hollow cylindrical electrode considering the end bending effect

Wang, Xingquan; Liu, Xia; Yang, Qing-Sheng

doi:10.1007/s00707-021-03014-4

Cited by 5 publications

(1 citation statement)

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“…By this setting, they expressed the non-Fickian diffusion induced by the lattice distortions, in other words, the coupling between lattice stresses and diffusion. Although the fundamental hypothesis, in some works, is the coupling between stresses and diffusion, i.e., stressinduced diffusion and diffusion-induced stress, it seems that neglecting the inertial term in the conservation of momentum leads eventually to uncoupling elastic diffusion (diffusioninduced stress), see e.g., [10].…”

Section: Introductionmentioning

confidence: 99%

Diffusion-induced stresses due to an impulsive mass source under non-Fickian mass transfer models

Fayik

Dhaba

Awad

2022

Preprint

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The description of the mass transfer mechanisms in various physical and engineering fields, e.g., Li-ion battery, is of a significant importance for optimizing their performance. The present work introduces a comparative study describing the different responses of a perfectly elastic material when different non-Fickian diffusion situations are considered. The uncoupled theory of elastic diffusion, in which the diffusion process is described by non-Fickian laws, such as Cattaneo, Jeffreys-type and Burgers-type constitutive laws, is employed in this modeling. Diffusion of lithium ions inside the silicon anode is one of the physical situations in which diffusion-induced stresses may be significant. An impulsive initial value problem, consisting of an initial lithium ions amount starts impulsively to diffuse over the entire space of a silicon material, is considered. Direct approach together with Laplace and exponential Fourier transforms techniques are employed to obtain the solution in the Laplace transformed domain. Inverse Laplace transform is computed numerically to obtain the solution in the physical domain. Comparisons among the material responses to different diffusion regimes are presented.

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Section: Introductionmentioning

confidence: 99%