Commercial lithium-ion batteries have excellent performance at room temperature for a few years (3-5). However, the calendar life and thermal stability (\u3e 50 oC) need to be improved for many applications, including electric vehicles. We have conducted a detailed investigation of the effect of thermal stabilizing additives, including dimethyl acetamide, vinylene carbonate, and lithium bis(oxalato) borate, on the reactions of the electrolyte with the surface of the cathodes and anodes. The surfaces of the electrodes have been characterized with a combination of IR-ATR, XPS, and SEM. The role of the electrolyte additive in solid electrolyte interface (SEI) formation and stability will be discussed
An investigation of the effect of various thermal stabilizing additives on thermally abused lithium-...
Commercial lithium-ion batteries cathodes are typically composed of metal oxides such as LiNi0.8Co0....
The incorporation of additives designed to sacrificially react on the surface of cathode materials o...
Commercial lithium-ion batteries have excellent performance at room temperature for a few years (3-5...
Commercial lithium-ion batteries have excellent performance at room temperature for a few years (3-5...
Commercial lithium-ion batteries have excellent performance at room temperature for a few years. How...
Capacity loss of lithium ion batteries develop over the period of a few years at room temperature an...
Li-ion batteries are the battery-type of choice for low power applications. They are a very promisin...
As part of our continuing efforts to develop advanced electrolytes to improve the performance of lit...
The development of Lithium Ion Battery (LIB) electrolytes with improved thermal and electrochemical ...
Electrolyte additives have the ability to increase the performance of Li-ion batteries in several wa...
An investigation of the effect of various thermal stabilizing additives on thermally abused lithium-...
With the intent of improving the performance of lithium-ion cells at high temperatures, we have inve...
There is an ever increasing demand for fossil fuels. Lithium ion batteries (LIBs) can effectively re...
Lithium difluoro (oxalate) borate (LiDFOB) is used as thermal stabilizing and solid electrolyte inte...
An investigation of the effect of various thermal stabilizing additives on thermally abused lithium-...
Commercial lithium-ion batteries cathodes are typically composed of metal oxides such as LiNi0.8Co0....
The incorporation of additives designed to sacrificially react on the surface of cathode materials o...
Commercial lithium-ion batteries have excellent performance at room temperature for a few years (3-5...
Commercial lithium-ion batteries have excellent performance at room temperature for a few years (3-5...
Commercial lithium-ion batteries have excellent performance at room temperature for a few years. How...
Capacity loss of lithium ion batteries develop over the period of a few years at room temperature an...
Li-ion batteries are the battery-type of choice for low power applications. They are a very promisin...
As part of our continuing efforts to develop advanced electrolytes to improve the performance of lit...
The development of Lithium Ion Battery (LIB) electrolytes with improved thermal and electrochemical ...
Electrolyte additives have the ability to increase the performance of Li-ion batteries in several wa...
An investigation of the effect of various thermal stabilizing additives on thermally abused lithium-...
With the intent of improving the performance of lithium-ion cells at high temperatures, we have inve...
There is an ever increasing demand for fossil fuels. Lithium ion batteries (LIBs) can effectively re...
Lithium difluoro (oxalate) borate (LiDFOB) is used as thermal stabilizing and solid electrolyte inte...
An investigation of the effect of various thermal stabilizing additives on thermally abused lithium-...
Commercial lithium-ion batteries cathodes are typically composed of metal oxides such as LiNi0.8Co0....
The incorporation of additives designed to sacrificially react on the surface of cathode materials o...