The rapid accumulation of spent lithium iron phosphate batteries has created an urgent need for sustainable and economically viable direct regeneration technologies. Direct regeneration requires restoring lithium stoichiometry, Fe valence, antisite defects, particle morphology, and surface conductivity. Herein, a mul...
Yuan Feng, Zi-Yang Liu, Rui-Qin Gao et al.· ENERGY & ENVIRONMENTAL M...· 0 citations
Direct regeneration can preserve the value of spent lithium iron phosphate (LFP) cathodes, but conventional relithiation and thermal repair remain limited by sluggish solid-state diffusion and incomplete reconstruction of the phosphate framework. A silicon-assisted strategy is introduced to couple olivine-lattice resto...
Zhi-Qiang Chen, Yuan Feng, Long-Hao Rao et al.· Small Methods· 0 citations
In extreme-environment applications such as military, aerospace, and polar research, batteries capable of reliable operation at ultralow temperatures are urgently needed. Current low-temperature battery research has largely focused on electrolyte optimization, while cathode material design remains relatively underexplo...
Zhao-Guo Zhang, Zhe Chen, Bao Zhang et al.· ACS Applied Materials and In...· 0 citations
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