Rechargeable lithium‐carbon dioxide (Li–CO2) batteries are promising devices for CO2
recycling and energy storage. However, thermodynamically stable and electrically insulating …

It is a natural choice to realize the vision of wood‐inspired functional materials for energy
engineering. Apart from being naturally abundant, renewable, and biodegradable, wood …

Lithium carbon dioxide (Li–CO2) batteries, noted for their high discharge voltage of
approximately 2.8 V and substantial theoretical specific energy of 1876 Wh kg− 1, represent …

Regulating surface strain of nanomaterials is an effective strategy to manipulate the activity
of catalysts, yet not well recognized in rechargeable Li–CO2 batteries. Herein, biaxially …

Abstract Lithium–air (Li–air) batteries stand out among the post‐Li‐ion batteries due to their
high energy density, which has rapidly progressed in the past years. Regarding the …

Combined with the dual characteristics of advanced energy storage and effective carbon
dioxide (CO 2) conversion, metal–carbon dioxide (M–CO 2) batteries are regarded as a …

Developing new cathode catalysts to facilitate the electrochemical reaction toward the
product of lithium oxalate would enhance the performance of Li–CO2 batteries. Herein, high …

Expediting redox kinetics of sulfur species on conductive scaffolds with limited charge
accessible surface is considered as an imperative approach to realize energy-dense and …

The over-exploitation of fossil fuels and rapid industrialization has released a large number
of carbon dioxide. As a major greenhouse gas, it can induce the increasing global …

Global warming and climate change caused by the emission of carbon dioxide (CO2) have
induced unprecedented threats to the natural environment. Efficient utilization of CO2 is a …