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- Title
Exceeding Theoretical Capacity in Exfoliated Ultrathin Manganese Ferrite Nanosheets via Galvanic Replacement‐Derived Self‐Hybridization for Fast Rechargeable Lithium‐Ion Batteries (Adv. Funct. Mater. 21/2023).
- Authors
Kang, Song Kyu; Kim, Minho; Shin, Hyun Ho; Yoon, Wongeun; Lee, Seungjun; Jang, Daehee; Choi, Junil; Park, Gwan Hyeon; Park, Jungsoo; Kim, Won Bae
- Abstract
Keywords: exceeding theoretical capacities; lithium-ion batteries; metal oxide anodes; nanosheets structures; spin-polarized surface capacitance EN exceeding theoretical capacities lithium-ion batteries metal oxide anodes nanosheets structures spin-polarized surface capacitance 1 1 1 05/19/23 20230517 NES 230517 B Exceeding Theoretical Capacity b In article number 2300143, Won Bae Kim and co-workers report the rational design of hybrid ultrathin manganese ferrite nanosheets through interfacial modifications that can exceed the theoretically limited energy storage capacity by fully utilizing highly spin-polarized surface capacitance. Exceeding Theoretical Capacity in Exfoliated Ultrathin Manganese Ferrite Nanosheets via Galvanic Replacement-Derived Self-Hybridization for Fast Rechargeable Lithium-Ion Batteries (Adv. Funct. Exceeding theoretical capacities, lithium-ion batteries, metal oxide anodes, nanosheets structures, spin-polarized surface capacitance.
- Subjects
LITHIUM-ion batteries; STORAGE batteries; NANOSTRUCTURED materials; FERRITES; MANGANESE; METALLIC oxides
- Publication
Advanced Functional Materials, 2023, Vol 33, Issue 21, p1
- ISSN
1616-301X
- Publication type
Article
- DOI
10.1002/adfm.202370128