International audienceThis chapter introduces the role of fluorinated and nonfluorinated additives introduced in Li-ion batteries electrolytes. These additives are mostly designed to create an artificial solid electrolyte interphase (SEI) at the anode material surface during the first charge. The physicochemical properties of the SEI are critical for the performances and cycling abilities of the cell and any break in its surface must be self-repairable. Some examples will be given using graphite and TiSnSb as active materials and vinylene carbonate, fluoroethylene carbonate (FEC), and difluoroethylene carbonate as additives to a mixture of alkyl carbonates containing LiPF6 as the lithium salt. The ionic resistance, the cycling ability, and ...
The cycling performance of silicon thin film electrodes was investigated in the presence of anode so...
We investigated the Solid Electrolyte Interphase (SEI) formed onto graphite using adiponitrile/dimet...
Unstable electrode/electrolyte interface is the major cause of degradation for silicon (Si)-based an...
International audienceThis chapter introduces the role of fluorinated and nonfluorinated additives i...
International audienceThis chapter introduces the role of fluorinated and nonfluorinated additives i...
International audienceThis chapter introduces the role of fluorinated and nonfluorinated additives i...
International audienceThis chapter introduces the role of fluorinated and nonfluorinated additives i...
International audienceThis chapter introduces the role of fluorinated and nonfluorinated additives i...
International audienceThis chapter introduces the role of fluorinated and nonfluorinated additives i...
International audienceThis chapter introduces the role of fluorinated and nonfluorinated additives i...
Silicon as a negative electrode material for lithium-ion batteries has attracted tremendous attentio...
The cycling performance of silicon thin film electrodes was investigated in the presence of anode so...
The cycling performance of silicon thin film electrodes was investigated in the presence of anode so...
The mechanism for the performance enhancement of lithium metal electrodes by fluoroethylene carbonat...
The mechanism for the performance enhancement of lithium metal electrodes by fluoroethylene carbonat...
The cycling performance of silicon thin film electrodes was investigated in the presence of anode so...
We investigated the Solid Electrolyte Interphase (SEI) formed onto graphite using adiponitrile/dimet...
Unstable electrode/electrolyte interface is the major cause of degradation for silicon (Si)-based an...
International audienceThis chapter introduces the role of fluorinated and nonfluorinated additives i...
International audienceThis chapter introduces the role of fluorinated and nonfluorinated additives i...
International audienceThis chapter introduces the role of fluorinated and nonfluorinated additives i...
International audienceThis chapter introduces the role of fluorinated and nonfluorinated additives i...
International audienceThis chapter introduces the role of fluorinated and nonfluorinated additives i...
International audienceThis chapter introduces the role of fluorinated and nonfluorinated additives i...
International audienceThis chapter introduces the role of fluorinated and nonfluorinated additives i...
Silicon as a negative electrode material for lithium-ion batteries has attracted tremendous attentio...
The cycling performance of silicon thin film electrodes was investigated in the presence of anode so...
The cycling performance of silicon thin film electrodes was investigated in the presence of anode so...
The mechanism for the performance enhancement of lithium metal electrodes by fluoroethylene carbonat...
The mechanism for the performance enhancement of lithium metal electrodes by fluoroethylene carbonat...
The cycling performance of silicon thin film electrodes was investigated in the presence of anode so...
We investigated the Solid Electrolyte Interphase (SEI) formed onto graphite using adiponitrile/dimet...
Unstable electrode/electrolyte interface is the major cause of degradation for silicon (Si)-based an...