The charge/discharge reaction of LiCoOsub2 electrode in an inorganic electrolyte solution consisting mainly of LiAlClsub4 and SOsub2 has been studied. Three different phases of lithium intercalation/deintercalation were found in voltammograms. Cycling behaviour of LiCoOsub2 electrode shows an increasing electronic resistance in the LiCoOsub2 bulk. The studied electrode/electrolyte combination is capable to withstand overcharging up to 5 V versus Li/Lihighplus without any capacity decrease
RECHARGEABLE lithium batteries can store more than twice as much energy per unit weight and volume a...
This Perspective highlights, through several snapshot examples, the importance of electrochemically-...
The electrochemical alkali ion exchange is a powerful technique to synthesize novel active materials...
The results of half cells experiments with Li/LiCo02 in inorganic electrolyte solution indicate stab...
A nonaqueous inorganic electrolyte, LiAlCl4·3SO2, was employed in an Li/LixCoO2 rechargeable battery...
Intercalation cathode materials belonging to the 4-volt class electrodes, lithiated cobalt oxide LiC...
At the FhG-Institute for Chemical Technology a new battary system Li/inorganic electrolyte/LiCoOsub2...
Lithium-cycling efficiencies and corrosion rates were measured in half cells. The elaborated inorgan...
Herein, we have identified that lithium ions in an SO2-based inorganic electrolyte reversibly interc...
The nonaqueous rechargeable lithium-O-2 battery containing an alkyl carbonate electrolyte discharges...
LiNi0.8Co0.2O2 cathode material for lithium ion batteries is synthesized by reaction under autogenic...
Rechargeable lithium batteries represent one of the most important developments in energy storage fo...
Extensive efforts have been devoted to developing a new battery chemistry that can replace the curre...
LiNi0.8Co0.2O2 cathode material for lithium ion batteries is synthesized by reaction under autogenic...
The charge transfer reaction at the LiNbO3-coated LiCoO2/sulfide-based solid electrolyte interface w...
RECHARGEABLE lithium batteries can store more than twice as much energy per unit weight and volume a...
This Perspective highlights, through several snapshot examples, the importance of electrochemically-...
The electrochemical alkali ion exchange is a powerful technique to synthesize novel active materials...
The results of half cells experiments with Li/LiCo02 in inorganic electrolyte solution indicate stab...
A nonaqueous inorganic electrolyte, LiAlCl4·3SO2, was employed in an Li/LixCoO2 rechargeable battery...
Intercalation cathode materials belonging to the 4-volt class electrodes, lithiated cobalt oxide LiC...
At the FhG-Institute for Chemical Technology a new battary system Li/inorganic electrolyte/LiCoOsub2...
Lithium-cycling efficiencies and corrosion rates were measured in half cells. The elaborated inorgan...
Herein, we have identified that lithium ions in an SO2-based inorganic electrolyte reversibly interc...
The nonaqueous rechargeable lithium-O-2 battery containing an alkyl carbonate electrolyte discharges...
LiNi0.8Co0.2O2 cathode material for lithium ion batteries is synthesized by reaction under autogenic...
Rechargeable lithium batteries represent one of the most important developments in energy storage fo...
Extensive efforts have been devoted to developing a new battery chemistry that can replace the curre...
LiNi0.8Co0.2O2 cathode material for lithium ion batteries is synthesized by reaction under autogenic...
The charge transfer reaction at the LiNbO3-coated LiCoO2/sulfide-based solid electrolyte interface w...
RECHARGEABLE lithium batteries can store more than twice as much energy per unit weight and volume a...
This Perspective highlights, through several snapshot examples, the importance of electrochemically-...
The electrochemical alkali ion exchange is a powerful technique to synthesize novel active materials...