1984
DOI: 10.1016/0378-7753(84)80044-0
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A review of cells based on lithium negative electrodes (anodes)

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Cited by 52 publications
(18 citation statements)
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“…Due to the low melting point of metallic Li (about 180 C) the local overheat can trigger a disastrous thermal runaway. [216,219±221] Several approaches have been pursued to improve the rechargeability and reliability of the metallic lithium electrode: i) by using liquid electrolytes that are less reactive toward lithium (e.g., highly purified or ªadditive-stabilizedº electrolytes); [96,153,157,158,164,222±234] ii) by using polymer electrolytes; [49,50,114±118,163,217,235] iii) by adding surface active agents such as hydrocarbons, quarternary ammonium salts, and others that level the regrowth of metallic lithium; [208,209,215,227,228,236±239] iv) by controlling the properties of the metal surface and of the SEI using additives such as CO 2 , [151,164,240±249] N 2 O, [240] S x 2± , [240,250] HF, [162,251±255] and H 2 O [164,243,256] (the additives may influence both the film formation and lithium plating process); v) by coating the lithium with a lithium-ion conducting membrane; [257±260] vi) by adding scavengers to the electrolyte that dissolve the dendritic lithium filaments; [148,180] vii) by using mechanical pressure to suppress dendritic lithium growth; [46,261,262] and viii) by ªlow-temperature pre-cyclingº. [263,264] However, all of the above attempts brought only partial improvements to the cycle life of the lithium electrode.…”
Section: Electrode/electrolyte Compatibilitymentioning
confidence: 99%
“…Due to the low melting point of metallic Li (about 180 C) the local overheat can trigger a disastrous thermal runaway. [216,219±221] Several approaches have been pursued to improve the rechargeability and reliability of the metallic lithium electrode: i) by using liquid electrolytes that are less reactive toward lithium (e.g., highly purified or ªadditive-stabilizedº electrolytes); [96,153,157,158,164,222±234] ii) by using polymer electrolytes; [49,50,114±118,163,217,235] iii) by adding surface active agents such as hydrocarbons, quarternary ammonium salts, and others that level the regrowth of metallic lithium; [208,209,215,227,228,236±239] iv) by controlling the properties of the metal surface and of the SEI using additives such as CO 2 , [151,164,240±249] N 2 O, [240] S x 2± , [240,250] HF, [162,251±255] and H 2 O [164,243,256] (the additives may influence both the film formation and lithium plating process); v) by coating the lithium with a lithium-ion conducting membrane; [257±260] vi) by adding scavengers to the electrolyte that dissolve the dendritic lithium filaments; [148,180] vii) by using mechanical pressure to suppress dendritic lithium growth; [46,261,262] and viii) by ªlow-temperature pre-cyclingº. [263,264] However, all of the above attempts brought only partial improvements to the cycle life of the lithium electrode.…”
Section: Electrode/electrolyte Compatibilitymentioning
confidence: 99%
“…Then, several attempts had been made to use CuS as electrode materials for a rechargeable Li-ion battery [25][26][27]. Herein, some preliminary electrochemical characterizations of the as-obtained CuS as electrode materials were investigated.…”
Section: Performance Of Cus Sphere-like Hierarchical Structure In Litmentioning
confidence: 99%
“…Using the concept of the average double layer particularly the PbO 2 /electrolyte interphase. EIS is also widely used as a tool for estimation of the state of charge (SoC) and state of health (SoH) of the battery [2][3][4][5][6][7][8][9][10].…”
Section: Introductionmentioning
confidence: 99%