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  4. Avoiding surface instability and slurry jamming in simultaneous multilayer coating of structured particulate films
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Avoiding surface instability and slurry jamming in simultaneous multilayer coating of structured particulate films

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Author(s)
Lee, J. A.
•
Kessman, Aaron
•
Shackleford, David
•
Bazant, Martin Z.
•
Barry, Brian
•
Chapman, Courtland
•
Peet, Jeff
Date Issued
October 7, 2021
Publisher
Springer US
Citation
Lee, J. A., Kessman, Aaron, Shackleford, David, Bazant, Martin Z., Barry, Brian et al. 2021. "Avoiding surface instability and slurry jamming in simultaneous multilayer coating of structured particulate films."
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Author's final manuscript
Abstract
Abstract Simultaneous multilayer coating techniques are widely known, but their industrial application remains limited to narrow market sectors. One barrier to adoption may be the mismatch between industries that are familiar with such processes but have no need, and industries that have need but are not familiar. Moreover, there are application-specific technical challenges to developing multilayer-coating processes. In this article, we describe our resolution of two specific issues in simultaneous multilayer coating of all-aqueous highly loaded slurries for new and emerging energy applications. The first issue is particle jamming (associated with shear-thickening) of the highly loaded slurries in the die internals, which we alleviated by adding small amounts of viscosity modifiers without reducing the solid loading. The second issue is a Marangoni-driven surface instability that resembles top layer de-wetting, which we solved by carefully selecting surfactants to tune the dynamic surface tensions of each slurry. Both issues were resolved early in a step-wise development, saving significant development cost which in our case was driven by expensive materials.
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Creative Commons Attribution-Noncommercial-Share Alike
http://creativecommons.org/licenses/by-nc-sa/4.0/
Persistent DSpace Link
https://hdl.handle.net/1721.1/139681
DOI of Published Version
https://doi.org/10.1007/s11998-021-00542-5
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