Characterization and Prediction of Polymer/Active Material Interface Failure in Battery Electrodes
Characterization and Prediction of Polymer/Active Material Interface Failure in Battery Electrodes
Abstract:
Characterization and Prediction of Polymer/Active Material Interface Failure in Battery Electrodes
Abstract:
Extreme Mechanics Letters (EML) is pleased to announce the initiation of an EML - Early Career Advisory Board (EML-ECAB) program to promote outstanding early career researchers and engage them in a path towards editorial services and contributions.
By Tianzhen Liu, Yuzhen Chen, John W. Hutchinson, Lihua Jin
This work presents a geometrically exact Kirchhoff-like electroelastic rod theory wherein the contribution of free space energy is also factored in. In addition to the usual mechanical variables such as the rod's centerline and cross-section orientation, three electric potential parameters are also introduced to account for the variation in electric potential within the rod's cross-section as well as along the rod length. The free space energy is included through an electric flux-like variable acting on the lateral surface of the rod.
Graphical Abstract (from Publication 2 below):
Abstract:
Liu, M., Domino, L., de Dinechin, I. D., Taffetani, M., & Vella, D.* (2023). Snap-induced morphing: From a single bistable shell to the origin of shape bifurcation in interacting shells. J Mech. Phys. Solids, 170, 105116.
In this paper we formulate the initial-boundary value problem of accreting circular cylindrical bars under finite torsion. It is assumed that the bar grows as a result of printing stress-free cylindrical layers on its boundary while it is under a time-dependent torque (or a time-dependent twist) and is free to deform axially. In a deforming body, accretion induces eigenetrains, and consequently residual stresses. We formulate the anelasticity problem by first constructing the natural Riemannian metric of the growing bar.
Yijie Cai, Jie Ma, Zihang Shen, Xianmin Shao, Zheng Jia *, Shaoxing Qu, Enhancing the fracture resistance of hydrogels by regulating the energy release rate via bilayer designs: Theory and experiments, Journal of the Mechanics and Physics of Solids, 170, 105125 (2023)
Multiscale mechanics and extreme materials lab (https://z.umn.edu/ravi-research-lab) at the University of Minnesota Twin Cities has two fully funded Ph.D. positions starting in fall 2023. Interested candidates may reach out to sravi [at] umn.edu (sravi[at]umn[dot]edu). The research will be on two main topics