Not all fugitives are bad: The case for using them to form low tortuosity - high porosity electrodes

This work focuses on the inclusion of an insoluble fugitive phase during slurry processing to form composite battery electrodes. The fugitive phases consist of natural derived products like alginic acid, sucrose, rice and potato starch, and carrageenans such as Irish Moss and synthetic pore-formers based on polymethyl methacrylate. The fugitive phases can be anaerobically thermally removed (350 °C) during binder crosslinking and electrode drying steps, resulting in electrodes with low tortuosities (approaching theoretical Bruggemann limits for spherical particles) and high porosities approaching 80%. The resulting ∼3 mg/cm 2 loaded electrodes suffer from poor electrical connectivity, lowering the effective material utilization, but represent an approach that could be utilized for the formation of solid-state batteries with infilling of materials into well-defined pores and optimized transport pathways.

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Publication Details

Journal
Next Energy
Published
2026-01-20
DOI
https://doi.org/10.1016/j.nxener.2026.100512
Primary Topic
Advanced Cellulose Research Studies
Type
article
Field-Weighted Citation Impact
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article

Not all fugitives are bad: The case for using them to form low tortuosity - high porosity electrodes

Yeyoung Ha, Khryslyn G. Araño, Gabriel M. Veith, Ethan D. Boeding et al.
Next Energy
Advanced Cellulose Research Studies
article

Not all fugitives are bad: The case for using them to form low tortuosity - high porosity electrodes

Yeyoung Ha, Khryslyn G. Araño, Gabriel M. Veith, Ethan D. Boeding, Rachel J. Korkosz, Chanaka Kumara, Cailin Duggan, Robert L. Sacci, Amanda L. Musgrove, Thomas Zac Ward, Beth L. Armstrong
article en

Abstract

This work focuses on the inclusion of an insoluble fugitive phase during slurry processing to form composite battery electrodes. The fugitive phases consist of natural derived products like alginic acid, sucrose, rice and potato starch, and carrageenans such as Irish Moss and synthetic pore-formers based on polymethyl methacrylate. The fugitive phases can be anaerobically thermally removed (350 °C) during binder crosslinking and electrode drying steps, resulting in electrodes with low tortuosities (approaching theoretical Bruggemann limits for spherical particles) and high porosities approaching 80%. The resulting ∼3 mg/cm 2 loaded electrodes suffer from poor electrical connectivity, lowering the effective material utilization, but represent an approach that could be utilized for the formation of solid-state batteries with infilling of materials into well-defined pores and optimized transport pathways.

Next EnergyVol. 11
Oak Ridge National Laboratory (US), National Laboratory of the Rockies (US), Knoxville College (US), University of Tennessee at Knoxville (US)
Openalex Percentile: Top 84%
Advanced Cellulose Research Studies
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