The use of a redox mediator (RM) to chemically decompose Li2O2 is an efficient approach to improve the efficiency and cyclability of lithium-oxygen batteries. It has been suggested that RMs can react with the singlet oxygen (O-1(2)) but no attempt has been made to categorize the reactivity of different RMs with O-1(2), or investigate the impact of this reaction on the electrochemical behavior of RMs. Here we show that the reactivity of RMs with O-1(2) depends on the unique chemistry of the RM, and that the Li2O2 decomposition kinetics of RMs are considerably affected by their reactivity towards O-1(2). We examine changes to the chemical and electrochemical properties of RMs after exposure to O-1(2). These results suggest that the activity a...
Aprotic lithium–oxygen (Li–O2) batteries have attracted considerable attention in recent years owing...
Superoxide (LiO2) formation on charging is one of the major causes of poor cycle life of Li–O2 batte...
The unique properties of room temperature ionic liquids make them promising electrolytes for next-ge...
The use of redox mediators (RMs) effectively reduces the high polarization of lithium-oxygen batteri...
The recent introduction of redox mediators as soluble catalysts in electrolytes has aimed at overcom...
Despite the high theoretical energy density, the realization of lithium-oxygen batteries with practi...
Although Li–air rechargeable batteries offer higher energy densities than lithium-ion batteries, the...
It is highly required to develop high specific energy density battery systems for the development of...
The seemingly simple reaction of Li-O2 batteries involving lithium and oxygen makes this chemistry a...
The seemingly simple reaction of Li-O-2 batteries involving lithium and oxygen makes this chemistry ...
Research has been carried out into lithium-oxygen cells over the last 20 years in an effort to devel...
The promising lithium-oxygen battery chemistry presents a set of challenges that need to be solved i...
Despite the exceptionally large theoretical energy density of lithium-oxygen batteries, their high c...
Lithium–oxygen cells in which lithium peroxide forms in solution rather than on the electrode surfac...
ABSTRACT: Unraveling the fundamentals of Li-O2 battery chemistry is crucial to develop practical cel...
Aprotic lithium–oxygen (Li–O2) batteries have attracted considerable attention in recent years owing...
Superoxide (LiO2) formation on charging is one of the major causes of poor cycle life of Li–O2 batte...
The unique properties of room temperature ionic liquids make them promising electrolytes for next-ge...
The use of redox mediators (RMs) effectively reduces the high polarization of lithium-oxygen batteri...
The recent introduction of redox mediators as soluble catalysts in electrolytes has aimed at overcom...
Despite the high theoretical energy density, the realization of lithium-oxygen batteries with practi...
Although Li–air rechargeable batteries offer higher energy densities than lithium-ion batteries, the...
It is highly required to develop high specific energy density battery systems for the development of...
The seemingly simple reaction of Li-O2 batteries involving lithium and oxygen makes this chemistry a...
The seemingly simple reaction of Li-O-2 batteries involving lithium and oxygen makes this chemistry ...
Research has been carried out into lithium-oxygen cells over the last 20 years in an effort to devel...
The promising lithium-oxygen battery chemistry presents a set of challenges that need to be solved i...
Despite the exceptionally large theoretical energy density of lithium-oxygen batteries, their high c...
Lithium–oxygen cells in which lithium peroxide forms in solution rather than on the electrode surfac...
ABSTRACT: Unraveling the fundamentals of Li-O2 battery chemistry is crucial to develop practical cel...
Aprotic lithium–oxygen (Li–O2) batteries have attracted considerable attention in recent years owing...
Superoxide (LiO2) formation on charging is one of the major causes of poor cycle life of Li–O2 batte...
The unique properties of room temperature ionic liquids make them promising electrolytes for next-ge...