Mei, Q. (2003) Structural Investigation into the Non-Arrhenius Behavior of Fast Ion Conducting Sulfide Glasses. Ph.D. Thesis, Iowa State University, Ames, 138 p.
https://dr.lib.iastate.edu/server/api/core/bitstreams/95912a3b-f792-4759-be5f-7cf079fe1d6b/content

has been cited by the following article:

• TITLE: Alkali Ionic Conductivity in Inorganic Glassy Electrolytes

  AUTHORS: Ram Krishna Hona, Mandy Guinn, Uttam S. Phuyal, S’Nya Sanchez, Gurjot S. Dhaliwal

  KEYWORDS: Glass Electrolyte, Solid State, Ionic Glass, Battery, Charge, Antiperovskite, Ionic Conductivity

  JOURNAL NAME: Journal of Materials Science and Chemical Engineering, Vol.11 No.7, July 28, 2023

  ABSTRACT: Glassy electrolytes could be a potential candidate for all-solid-state batteries that are considered new-generation energy storage devices. As glasses are one of the potential fast ion-conducting electrolytes, progressive advances in glassy electrolytes have been undergoing to get commercial attention. However, the challenges offered by ionic conductivity at room temperature (10−5 - 10−3 S∙cm−1) in comparison to those of organic liquid electrolytes (10−2 S∙cm−1) hindered the applicability of such electrolytes. To enhance the research development on ionic conductivity, the overall picture of the ionic conductivity of glassy electrolytes is reviewed in this article with a focus on alkali oxide and sulfide glasses. We portray here the techniques applied for alkali ion conductivity enhancement, such as methods of glass preparation, host optimization, doping, and salt addition for enhancing alkali ionic conductivity in the glasses.