Here, we report a new charge protocol for dendrite-free Li-metal battery based on the understanding the effects of over-potential on Li dendritic growth. We demonstrate that when a large over-potential is applied, the deposited Li metal shows a needle-like morphology even though a current density of a cell does not reach the limiting current density. This clearly indicates over-potential leads to the early formation of space charge region near a negative electrode, and thereby the Li dendritic growth can be easily triggered. As a result, control of the over-potential is very important for dendrite-free Li metal batteries. Through this understanding, we propose a new stepwise potentiostatic charge protocol that can keep the over-potential be...
We offer an explanation for how dendrite growth can be inhibited when Li metal pouch cells are subje...
Since their commercialization in 1990, the electrodes of the lithium-ion battery have remained funda...
The main obstacle to the development of the next-generation Li-based batteries is the formation of L...
Rechargeable lithium metal batteries are considered the “Holy Grail” of energy storage systems. Unfo...
Utilization of lithium (Li) metal anode is highly desirable for achieving high energy density batter...
The dendritic structure is a disastrous problem of lithium metal batteries as well as other metal re...
Because of its ultrahigh specific capacity, lithium metal holds great promise for revolutionizing cu...
The utilization of lithium (Li) metal is highly desirable, because it is the most attractive anode f...
We introduce a coarse-grained simulation model for the reductive deposition of lithium cations in se...
The Li metal anode possesses the high specific capacity and the minimum reduction potential known as...
Future lithium-ion batteries must use lithium metal anodes to fulfill the demands of high energy den...
Lithium (Li) metal has garnered significant attention as the preferred anode for high-energy lithium...
Uncontrolled dendrite formation in the high energy density of lithium (Li) metal batteries (LMBs) ma...
Lithium metal batteries have the highest energy density of any battery technology and are, therefore...
As the most promising candidate for next-generation batteries, Li metal batteries (such as Li-air an...
We offer an explanation for how dendrite growth can be inhibited when Li metal pouch cells are subje...
Since their commercialization in 1990, the electrodes of the lithium-ion battery have remained funda...
The main obstacle to the development of the next-generation Li-based batteries is the formation of L...
Rechargeable lithium metal batteries are considered the “Holy Grail” of energy storage systems. Unfo...
Utilization of lithium (Li) metal anode is highly desirable for achieving high energy density batter...
The dendritic structure is a disastrous problem of lithium metal batteries as well as other metal re...
Because of its ultrahigh specific capacity, lithium metal holds great promise for revolutionizing cu...
The utilization of lithium (Li) metal is highly desirable, because it is the most attractive anode f...
We introduce a coarse-grained simulation model for the reductive deposition of lithium cations in se...
The Li metal anode possesses the high specific capacity and the minimum reduction potential known as...
Future lithium-ion batteries must use lithium metal anodes to fulfill the demands of high energy den...
Lithium (Li) metal has garnered significant attention as the preferred anode for high-energy lithium...
Uncontrolled dendrite formation in the high energy density of lithium (Li) metal batteries (LMBs) ma...
Lithium metal batteries have the highest energy density of any battery technology and are, therefore...
As the most promising candidate for next-generation batteries, Li metal batteries (such as Li-air an...
We offer an explanation for how dendrite growth can be inhibited when Li metal pouch cells are subje...
Since their commercialization in 1990, the electrodes of the lithium-ion battery have remained funda...
The main obstacle to the development of the next-generation Li-based batteries is the formation of L...