Structural instability of LiCoO2 can be improved by sol-gel coating of Al2O3 and subsequent heat-treatments. While Al2O3 phase does not exist after heat-treatments. solid solution LiCo1-xAlxO2 that has discretely higher Al concentration was formed at the surface, up to similar to 500 Angstrom inside the particle. However, heat-treatment to 700 degreesC results in the presence of the solid solution beyond similar to 500 Angstrom. The different Al concentration at the surface significantly affects the structural stability of the materials during cycling, and those prepared at 400 degreesC do not show a phase transition from hexagonal to monoclinic phase, Disappearance of such a phase transition improves capacity retention of the cathode. More...
Temperature programmed reduction (TPR) method was introduced to analyze the structural change and th...
The phase transitions of the bare and AlPO4-coated delithiated LixCoO2 (x = 0.4 and 0.24) according ...
Structural changes of bare and AIPO(4)-coated LiCoO2 with a coating thickness of 20 and 200 nm are i...
A high-performance LiCoO2 cathode was successively fabricated by a sol-gel coating of Al2O3 to the L...
We report that sol-gel coating of SnO2 and subsequent heat-treatment at relatively low temperature g...
The improved cycling properties of LiCoO2 cathodes are reviewed in this article. Three methods of co...
Improved cycling properties and thermal stability of LiCoO2 coated with cobalt oxides by a wet chemi...
The electrochemical stability of LiCoO2 films is improved by an ???10 nm Al2O3 coating on top of the...
The surface and bulk structure of the fully delithiated bare and AlPO4-coated LixCoO2 cathode materi...
A significant improvement in high temperature performance of LiMn2O4 cathode material has been achie...
The enhanced cyclability of LiCoO2 coated with MgAl2O4 is described. A TEM examination of the micros...
A mass scalable dry-coating method was used on a LiCoO2 cathode to improve cycling stability at 60 d...
The thermal instability of the LiCoO2 cathode material was greatly improved by the nanoparticle AlPO...
LiCoO2 cathodes coated with Al2O3 generated from carboxylate–alumoxanes have demonstrated sustainabl...
The cycling properties of LiCoO2 coated with TiO2 by a sol–gel process from an alkoxide precursor an...
Temperature programmed reduction (TPR) method was introduced to analyze the structural change and th...
The phase transitions of the bare and AlPO4-coated delithiated LixCoO2 (x = 0.4 and 0.24) according ...
Structural changes of bare and AIPO(4)-coated LiCoO2 with a coating thickness of 20 and 200 nm are i...
A high-performance LiCoO2 cathode was successively fabricated by a sol-gel coating of Al2O3 to the L...
We report that sol-gel coating of SnO2 and subsequent heat-treatment at relatively low temperature g...
The improved cycling properties of LiCoO2 cathodes are reviewed in this article. Three methods of co...
Improved cycling properties and thermal stability of LiCoO2 coated with cobalt oxides by a wet chemi...
The electrochemical stability of LiCoO2 films is improved by an ???10 nm Al2O3 coating on top of the...
The surface and bulk structure of the fully delithiated bare and AlPO4-coated LixCoO2 cathode materi...
A significant improvement in high temperature performance of LiMn2O4 cathode material has been achie...
The enhanced cyclability of LiCoO2 coated with MgAl2O4 is described. A TEM examination of the micros...
A mass scalable dry-coating method was used on a LiCoO2 cathode to improve cycling stability at 60 d...
The thermal instability of the LiCoO2 cathode material was greatly improved by the nanoparticle AlPO...
LiCoO2 cathodes coated with Al2O3 generated from carboxylate–alumoxanes have demonstrated sustainabl...
The cycling properties of LiCoO2 coated with TiO2 by a sol–gel process from an alkoxide precursor an...
Temperature programmed reduction (TPR) method was introduced to analyze the structural change and th...
The phase transitions of the bare and AlPO4-coated delithiated LixCoO2 (x = 0.4 and 0.24) according ...
Structural changes of bare and AIPO(4)-coated LiCoO2 with a coating thickness of 20 and 200 nm are i...