TY - JOUR
T1 - Rational Designs to Enable 10-min Fast Charging and Long Cycle Life in Lithium-Ion Batteries
T2 - Article No. 233519
AU - Tanim, Tanvir
AU - Kim, Sangwook
AU - Colclasure, Andrew
AU - Yang, Zhenzhen
AU - Gering, Kevin
AU - Weddle, Peter
AU - Evans, Michael
AU - Dufek, Eric
AU - Lin, Yulin
AU - Wen, Jianguo
AU - Usseglio-Viretta, Francois
AU - Dunlop, Alison
AU - Trask, Stephen
AU - Smith, Kandler
AU - Ingram, Brian
AU - Jansen, Andrew
PY - 2023
Y1 - 2023
N2 - A daunting challenge in the design of lithium ion batteries (LiBs) is enabling 10-min extreme fast charging (XFC) while achieving appreciable charge acceptance and cycle life. This desirable outcome requires both a comprehensive understanding of LiB operation and aging behavior at different length scales and careful optimization. Lithium plating has been a critical bottleneck because, at XFC rates, it consumes cyclable lithium causing distinct aging and safety concerns even in moderate-loading LiBs. We propose combining multiple solutions, including materials-to-electrode design-to-charging protocols, that are intended to overcome limitations in lithium-ion transport in the electrolyte phase, thus enabling 10-min XFC in LiBs. Some implemented strategies include cathode chemistry, optimized carbon binder domain in the cathode, dual layer anode design, improved separator and advanced electrolyte. Further, innovative charging protocols in moderately loading (~3 mAh/cm2 anode/2.7 mAh/cm2 cathode) single-layer pouch cells are proposed, together with demonstrated 10-min XFC with higher charge acceptance between 87.3 and 92.1% (or 2-2.1 mAh/cm2) for 600 cycles without lithium plating. This methodical study with well-defined cells shows promise in combining multiple solution strategies to enable 10-min XFC, charting a pathway to achieve XFC in higher-loading energy-optimized LiBs.
AB - A daunting challenge in the design of lithium ion batteries (LiBs) is enabling 10-min extreme fast charging (XFC) while achieving appreciable charge acceptance and cycle life. This desirable outcome requires both a comprehensive understanding of LiB operation and aging behavior at different length scales and careful optimization. Lithium plating has been a critical bottleneck because, at XFC rates, it consumes cyclable lithium causing distinct aging and safety concerns even in moderate-loading LiBs. We propose combining multiple solutions, including materials-to-electrode design-to-charging protocols, that are intended to overcome limitations in lithium-ion transport in the electrolyte phase, thus enabling 10-min XFC in LiBs. Some implemented strategies include cathode chemistry, optimized carbon binder domain in the cathode, dual layer anode design, improved separator and advanced electrolyte. Further, innovative charging protocols in moderately loading (~3 mAh/cm2 anode/2.7 mAh/cm2 cathode) single-layer pouch cells are proposed, together with demonstrated 10-min XFC with higher charge acceptance between 87.3 and 92.1% (or 2-2.1 mAh/cm2) for 600 cycles without lithium plating. This methodical study with well-defined cells shows promise in combining multiple solution strategies to enable 10-min XFC, charting a pathway to achieve XFC in higher-loading energy-optimized LiBs.
KW - charging protocol
KW - electrolyte
KW - extreme fast charging
KW - lithium plating
KW - lithium-ion battery
UR - http://www.scopus.com/inward/record.url?scp=85172479721&partnerID=8YFLogxK
U2 - 10.1016/j.jpowsour.2023.233519
DO - 10.1016/j.jpowsour.2023.233519
M3 - Article
SN - 0378-7753
VL - 852
JO - Journal of Power Sources
JF - Journal of Power Sources
ER -