| 173 - 183 |
Historical Development of Secondary Lithium Batteries
Brandt K |
| 184 - 198 |
Design Considerations
Goodenough JB |
| 201 - 211 |
Why Transition-Metal (di) Oxides Are the Most Attractive Materials for Batteries
Ohzuku T, Ueda A |
| 212 - 221 |
Lithium-Ion Rechargeable Batteries with Licoo2 and Carbon Electrodes - The Licoo2 C System
Ozawa K |
| 222 - 237 |
The Carbon Li1+xmn2O4 System
Guyomard D, Tarascon JM |
| 238 - 256 |
The LiNiO2 Carbon Lithium-Ion Battery
Ebner W, Fouchard D, Xie L |
| 257 - 264 |
The Lixv2O5 System - An Overview of the Structure Modifications Induced by the Lithium Intercalation
Delmas C, Cognacauradou H, Cocciantelli JM, Menetrier M, Doumerc JP |
| 265 - 270 |
Thermal-Stability of Lixcoo2, Lixnio2 and Lambda-MnO2 and Consequences for the Safety of Li-Ion Cells
Dahn JR, Fuller EW, Obrovac M, Vonsacken U |
| 273 - 283 |
Carbon Materials for Lithium-Ion (Shuttlecock) Cells
Sawai K, Iwakoshi Y, Ohzuku T |
| 284 - 290 |
Comparative Thermal-Stability of Carbon Intercalation Anodes and Lithium Metal Anodes for Rechargeable Lithium Batteries
Vonsacken U, Nodwell E, Sundher A, Dahn JR |
| 293 - 305 |
New Electrolyte Compositions Stable over the O-V to 5-V Voltage Range and Compatible with the Li1+xmn2O4 Carbon Li-Ion Cells
Tarascon JM, Guyomard D |
| 309 - 319 |
The History of Polymer Electrolytes
Armand M |
| 320 - 335 |
Review of Hybrid Polymer Electrolytes and Rechargeable Lithium Batteries
Koksbang R, Olsen II, Shackle D |
| 336 - 342 |
Lithium-Polymer Batteries for Electrical Vehicles - A Realistic View
Anderman M |
| 343 - 353 |
Li-Conducting Ionic Rubbers for Lithium Battery and Other Applications
Angell CA, Fan J, Liu CL, Lu Q, Sanchez E, Xu K |
| 357 - 368 |
Thin-Film Rechargeable Li Batteries
Jones SD, Akridge JR, Shokoohi FK |
| III - IV |
Recent Advances in Rechargeable Li Batteries - Preface
Whittingham MS |
