Solids that simultaneously conduct electrons and ions are key elements for the mass transfer and storage required in battery electrodes. Single-phase materials with a high electronic and high ionic conductivity at room temperature are hard to come by, and therefore multiphase systems with separate ion and electron channels have been put forward instead. Here we report on bilayer graphene as a single-phase mixed conductor that demonstrates Li diffusion faster than in graphite and even surpassing the diffusion of sodium chloride in liquid water. To measure Li diffusion, we have developed an on-chip electrochemical cell architecture in which the redox reaction that forces Li intercalation is localized only at a protrusion of the device so that...
Fast ion transport is essential for high rate capability in rechargeable battery operation. Recently...
A multi-layer of stacked-graphene (8 layers of basal planes) grown by chemical vapour deposition (CV...
AbstractTwo potential pathways for Li+ diffusion occur within graphitic carbon with typically in-pla...
Coexistence of both edge plane and basal plane in graphite often hinders the understanding of lithiu...
AbstractTwo potential pathways for Li+ diffusion occur within graphitic carbon with typically in-pla...
Improvements in lithium (Li)-ion battery technology can be achieved by developing novel, high-perfor...
The real capacity of graphene and the lithium-storage process in graphite are two currently perplexi...
Novel two-dimensional materials (2DMs) with balanced electrical conductivity and lithium (Li) storag...
Novel two-dimensional materials (2DMs) with balanced electrical conductivity and lithium (Li) storag...
Novel two-dimensional materials (2DMs) with balanced electrical conductivity and lithium (Li) storag...
Novel two-dimensional materials (2DMs) with balanced electrical conductivity and lithium (Li) storag...
Novel two-dimensional materials (2DMs) with balanced electrical conductivity and lithium (Li) storag...
Layered two-dimensional (2D) materials like graphene are highly appealing for lithium battery applic...
2D materials have attracted tremendous attention due to their unique physical and chemical properti...
Layered two-dimensional (2D) materials like graphene are highly appealing for lithium battery applic...
Fast ion transport is essential for high rate capability in rechargeable battery operation. Recently...
A multi-layer of stacked-graphene (8 layers of basal planes) grown by chemical vapour deposition (CV...
AbstractTwo potential pathways for Li+ diffusion occur within graphitic carbon with typically in-pla...
Coexistence of both edge plane and basal plane in graphite often hinders the understanding of lithiu...
AbstractTwo potential pathways for Li+ diffusion occur within graphitic carbon with typically in-pla...
Improvements in lithium (Li)-ion battery technology can be achieved by developing novel, high-perfor...
The real capacity of graphene and the lithium-storage process in graphite are two currently perplexi...
Novel two-dimensional materials (2DMs) with balanced electrical conductivity and lithium (Li) storag...
Novel two-dimensional materials (2DMs) with balanced electrical conductivity and lithium (Li) storag...
Novel two-dimensional materials (2DMs) with balanced electrical conductivity and lithium (Li) storag...
Novel two-dimensional materials (2DMs) with balanced electrical conductivity and lithium (Li) storag...
Novel two-dimensional materials (2DMs) with balanced electrical conductivity and lithium (Li) storag...
Layered two-dimensional (2D) materials like graphene are highly appealing for lithium battery applic...
2D materials have attracted tremendous attention due to their unique physical and chemical properti...
Layered two-dimensional (2D) materials like graphene are highly appealing for lithium battery applic...
Fast ion transport is essential for high rate capability in rechargeable battery operation. Recently...
A multi-layer of stacked-graphene (8 layers of basal planes) grown by chemical vapour deposition (CV...
AbstractTwo potential pathways for Li+ diffusion occur within graphitic carbon with typically in-pla...