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Aurbach

E. Mengerihky, P. Dan, H. Xamm, 1. Weiss-man, E. Zinigrad, D. Aurbach, New Li-Mn02 Technology by Tadiran, 190th ECS Meeting, Abstract, 115. [Pg.82]

Carbon dioxide has been proposed as an additive to improve the performance of lithium batteries [60]. Aurbach et al. [61] studied the film formed on lithium in electrolytes saturated with C02, and using in situ FTIR found that Li2C03 is a major surface species. This means that the formation of a stable Li2C03 film on the lithium surface may improve cyclability [62], Osaka and co-workers [63] also studied the dependence of the lithium efficiency on the plating substrate in LiC104-PC. The addition of C02 resulted in an increase in the efficiency when the substrate was Ni or Ti, but no effect was observed with Ag or Cu substrates. [Pg.349]

Y. E. Ely, D. Aurbach, Proc. Symp. High Power Ambient Temperature Lithium Batteries, The Electrochemical Society, 1992, p. 157. [Pg.355]

The first two models are irrelevant to lithium-battery systems since the PEIs are not thermodynamically stable with respect to lithium. Perchlorate (and other anions but not halides) were found to be reduced to LiCl [15, 16, 22-27]. It is commonly accepted that in lithium batteries the anode is covered by SEI which consists of thermodynamically stable anions (such as 02, S2-, halides). Recently, Aurbach and Za-ban [25] suggested an SEI which consists of five different consecutive layers. They represented this model by a series of five... [Pg.444]

D. Aurbach, A. Zaban, M. Moshkovich, Abstr. 8th Int. Meeting on Li Batteries, Nagoya, Japan, 1996, p. 246. [Pg.455]

The following reactions proposed by Aurbach and co-workers are examples of the reductive decomposition reactions of anions with lithium [199, 169] ... [Pg.482]


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Aurbach, M. Koltypin, H. Teller and Y. S. Cohen New Developments in the Advanced Graphite for ithium-Ion Batteries

Levi and Aurbach

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