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Main Authors: Schwab, Felix K., Doppl, Britta, Herrmann, Niklas J., Boudet, Alice, Mirhashemi, Shadi, Brimaud, Sylvain, Horstmann, Birger
Format: Preprint
Published: 2025
Subjects:
Online Access:https://arxiv.org/abs/2509.05026
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author Schwab, Felix K.
Doppl, Britta
Herrmann, Niklas J.
Boudet, Alice
Mirhashemi, Shadi
Brimaud, Sylvain
Horstmann, Birger
author_facet Schwab, Felix K.
Doppl, Britta
Herrmann, Niklas J.
Boudet, Alice
Mirhashemi, Shadi
Brimaud, Sylvain
Horstmann, Birger
contents Nickel/zinc (Ni/Zn) technology is a promising post-lithium battery type for stationary applications with respect to aspects such as safety, environmental compatibility and resource availability. Although this battery type has been known for a long time, the theoretical knowledge about the processes taking place in the battery is limited. In order to gain a deeper understanding of the general cycling behaviour and the underlying processes, but also specific phenomena intrinsic to zinc-based cells such as zinc shape change, we carry out simulations based on a thermodynamically consistent and volume-averaged continuum model. We use a Ni/Zn prototype cell as a reference framework to provide a basis for modelling, parameter estimation and systematic comparison between simulated and experimental cell behaviour to improve cyclability and performance.
format Preprint
id arxiv_https___arxiv_org_abs_2509_05026
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Modelling and Simulation of an Alkaline Ni/Zn Cell
Schwab, Felix K.
Doppl, Britta
Herrmann, Niklas J.
Boudet, Alice
Mirhashemi, Shadi
Brimaud, Sylvain
Horstmann, Birger
Chemical Physics
Materials Science
Nickel/zinc (Ni/Zn) technology is a promising post-lithium battery type for stationary applications with respect to aspects such as safety, environmental compatibility and resource availability. Although this battery type has been known for a long time, the theoretical knowledge about the processes taking place in the battery is limited. In order to gain a deeper understanding of the general cycling behaviour and the underlying processes, but also specific phenomena intrinsic to zinc-based cells such as zinc shape change, we carry out simulations based on a thermodynamically consistent and volume-averaged continuum model. We use a Ni/Zn prototype cell as a reference framework to provide a basis for modelling, parameter estimation and systematic comparison between simulated and experimental cell behaviour to improve cyclability and performance.
title Modelling and Simulation of an Alkaline Ni/Zn Cell
topic Chemical Physics
Materials Science
url https://arxiv.org/abs/2509.05026