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  4. Safe Li-Ion Batteries Using Electrode Coated Silicalite Separators For Improved Performance And Cycle Life
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Safe Li-Ion Batteries Using Electrode Coated Silicalite Separators For Improved Performance And Cycle Life

Full metadata

Title
Safe Li-Ion Batteries Using Electrode Coated Silicalite Separators For Improved Performance And Cycle Life
Description
Lithium-ion batteries are widely used for high energy storage systems and most of the commercially manufactured lithium-ion batteries use liquid electrolytes and polymeric separators. However, these electrolytes and polymeric separators pose safety issues under high temperatures and in the event of short circuit which may lead to thermal runaway and cause fire. The application of fire-retardant high salt concentrated electrolytes can be used to address the safety issues that arises in the use of liquid electrolytes, but these electrolytes have high viscosity and low wettability when used on polymeric separators which are commercially used in lithium-ion batteries. To address this issue, zeolite powder has been synthesized and separators were prepared by coating on the electrode using scalable blade coating method. Zeolite separators have higher wettability and electrolyte uptake compared to polymeric separators such as polypropylene (PP) due to their intra-particle micropores. The zeolite separators also have higher porosity compared to PP separators resulting in higher electrolyte uptake and better electrochemical performance of the lithium-ion batteries. Zeolite separators have been prepared using spherical-silicalite and plate-silicalite to analyze the effect of morphology of the particles on the electrochemical performance of the cells. The platesilicalite separators have higher capacity retention during long-term cycling at low Crates and better capacity performance at high C-rates compared to spherical-silicalite. Therefore plate-silicalite is very promising for the development of high-performance safe lithium-ion batteries.
Date Created
2022
Contributors
  • LINGAM MURALI, DHEERAJ RAM (Author)
  • Lin, Jerry (Thesis advisor)
  • Muhich, Christopher (Committee member)
  • Torres, Cesar (Committee member)
  • Arizona State University (Publisher)
Topical Subject
  • chemical engineering
  • Blade coating
  • High concentrated electrolyte
  • High rate capability
  • Long cycle life
  • Safe Li-ion batteries
  • Silicalite synthesis
Resource Type
Text
Genre
Masters Thesis
Academic theses
Extent
67 pages
Language
eng
Copyright Statement
In Copyright
Reuse Permissions
All Rights Reserved
Primary Member of
ASU Electronic Theses and Dissertations
Peer-reviewed
No
Open Access
No
Handle
https://hdl.handle.net/2286/R.2.N.171686
Level of coding
minimal
Cataloging Standards
asu1
Note
Partial requirement for: M.S., Arizona State University, 2022
Field of study: Chemical Engineering
System Created
  • 2022-12-20 06:19:18
System Modified
  • 2022-12-20 06:19:18
  •     
  • 1 year 11 months ago
Additional Formats
  • OAI Dublin Core
  • MODS XML

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