The Li–O2 battery holds great promise as an ultra-high-energydensity device. However, its limited rechargeability and low energy efficiency remain key barriers to its practical application. Herein, we demonstrate that the ideal electrode morphology design combined with effective catalyst decoration can enhance the rechargeability of the Li–O2 battery over 100 cycles with full discharge and charge. An aligned carbon structure with a hierarchical micro-nano-mesh ensures facile accessibility of reaction products and provides the optimal catalytic conditions for the Pt catalyst. The new electrode is highly reversible even at the extremely high current rate of 2 A g1. Moreover, we observed clearly distinct morphologies of discharge products when...
Low-cost and highly active electrocatalysts are attractive for Li–O2 applications. Herein, a 3D inte...
The shape of catalysts has been regarded as a crucial physical factor to determine its catalytic act...
Lithium–oxygen (Li–O<sub>2</sub>) batteries have the highest theoretical energy density of all the L...
The Li-O-2 battery holds great promise as an ultra-high-energydensity device. However, its limited r...
The Li-O-2 battery holds great promise as an ultra-high-energydensity device. However, its limited r...
The lithium–oxygen battery has the potential to deliver extremely high energy densities; however, th...
The lithium-oxygen battery has the potential to deliver extremely high energy densities; however, th...
The instabilities associated with solid catalysts and carbon electrode materials are one of the chal...
The optimal design of air-electrodes is one of the important keys to achieve the high rechargeabilit...
The non-aqueous lithium oxygen battery has been considered as one of the most promising energy stora...
By replacing the intercalation electrode with a porous electrode and allowing lithium to react direc...
The optimal design of air-electrodes is one of the important keys to achieve the high rechargeabilit...
Current lithium-ion battery energy storage is restricted by the positive intercalation electrode, ge...
Nonaqueous lithium–oxygen (Li–O2) batteries are regarded as a promising electrochemical energy stora...
Rechargeable aprotic lithium-oxygen (Li-O2) batteries have attracted significant interest in recent ...
Low-cost and highly active electrocatalysts are attractive for Li–O2 applications. Herein, a 3D inte...
The shape of catalysts has been regarded as a crucial physical factor to determine its catalytic act...
Lithium–oxygen (Li–O<sub>2</sub>) batteries have the highest theoretical energy density of all the L...
The Li-O-2 battery holds great promise as an ultra-high-energydensity device. However, its limited r...
The Li-O-2 battery holds great promise as an ultra-high-energydensity device. However, its limited r...
The lithium–oxygen battery has the potential to deliver extremely high energy densities; however, th...
The lithium-oxygen battery has the potential to deliver extremely high energy densities; however, th...
The instabilities associated with solid catalysts and carbon electrode materials are one of the chal...
The optimal design of air-electrodes is one of the important keys to achieve the high rechargeabilit...
The non-aqueous lithium oxygen battery has been considered as one of the most promising energy stora...
By replacing the intercalation electrode with a porous electrode and allowing lithium to react direc...
The optimal design of air-electrodes is one of the important keys to achieve the high rechargeabilit...
Current lithium-ion battery energy storage is restricted by the positive intercalation electrode, ge...
Nonaqueous lithium–oxygen (Li–O2) batteries are regarded as a promising electrochemical energy stora...
Rechargeable aprotic lithium-oxygen (Li-O2) batteries have attracted significant interest in recent ...
Low-cost and highly active electrocatalysts are attractive for Li–O2 applications. Herein, a 3D inte...
The shape of catalysts has been regarded as a crucial physical factor to determine its catalytic act...
Lithium–oxygen (Li–O<sub>2</sub>) batteries have the highest theoretical energy density of all the L...