The underlying mechanism for reduction stability of organic electrolytes in lithium secondary batteries
Xiaohui Shen, Peng Li, Xuemei Liu, Shengli Chen, Xinping Ai, Hanxi Yang, Yuliang Cao
Abstract
to form an anion-induced ion-solvent-coordinated (AI-ISC) structure, leading to a "V-shaped" change of the LUMO energy level of coordinated solvent molecules, whose interfacial stability first decreases and then increases with the increased MRs of salt to solvent. This mechanism perfectly explains the long-standing puzzle about the interfacial compatibility of organic electrolytes with Li or similar low potential anodes and provides a basic understanding and new insights into the rational design of the advanced electrolytes for next generation lithium secondary batteries.
Topics & Concepts
ElectrolyteLithium (medication)Mechanism (biology)Reduction (mathematics)Stability (learning theory)IonChemistryMaterials scienceChemical engineeringOrganic chemistryElectrodePhysical chemistryComputer sciencePhysicsMathematicsBiologyEngineeringEndocrinologyQuantum mechanicsMachine learningGeometryAdvanced Battery Materials and TechnologiesAdvancements in Battery MaterialsAdvanced Battery Technologies Research