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Dendrite-free lithium metal and sodium metal batteries
Energy Storage Materials, 2020Abstract Lithium and sodium metal batteries (LMBs, SMBs) with high theoretical capacities and high energy densities have attracted tremendous attention as a new class of energy storage devices. However, these metal batteries usually suffer from uneven metal plating/stripping behavior, continuous side reactions between lithium/sodium metal and ...
Ma, Lianbo +6 more
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A Heteroanionic Zinc Ion Conductor for Dendrite‐Free Zn Metal Anodes
Advanced Materials, 2023AbstractAlthough zinc‐based batteries are promising candidates for eco‐friendly and cost‐effective energy storage devices, their performance is severely retarded by dendrite formation. As the simplest zinc compounds, zinc chalcogenides, and halides are individually applied as a Zn protection layer due to high zinc ion conductivity.
Siwei Zhao +7 more
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Structure‐Controlled Carbon Hosts for Dendrite‐Free Aqueous Zinc Batteries
Small, 2023AbstractThe surging demand for environmental‐friendly and safe electrochemical energy storage systems has driven the development of aqueous zinc (Zn)‐ion batteries (ZIBs). However, metallic Zn anodes suffer from severe dendrite growth and large volume change, resulting in a limited lifetime for aqueous ZIB applications.
Kyungbin Lee +10 more
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N‐Doped Graphdiyne Coating for Dendrite‐Free Lithium Metal Batteries
Chemistry – A European Journal, 2020AbstractNonuniform nucleation is one of the major reasons for the dendric growth of metallic lithium, which leads to intractable problems in the efficiency, reversibility, and safety in Li‐based batteries. To improve the deposition of metallic Li on Cu substrates, herein, a freestanding current collector (NGDY@CuNW) is formed by coating pyridinic ...
Hong Shang +3 more
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Secondary Battery utilizing a Dendrite-free Lithium Metal Anode
ECS Meeting Abstracts, 2011Abstract not Available.
Johanna K. Stark, Paul Kohl
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A multifunctional Cu6Sn5 interface layer for dendritic-free lithium metal anode
Journal of Colloid and Interface Science, 2022The unstable electrode/electrolyte interface of the lithium metal anode is one of the reasons that induce the formation of lithium (Li) dendrites. The Li dendrites will reduce the coulombic efficiency, and even pierce the separator to cause the safety problems.
Zhicong, Ni +7 more
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Homogeneous Interface Conductivity for Lithium Dendrite-Free Anode
ACS Energy Letters, 2018Dendrite growth is one of the major problems that hinder the practical application of lithium metal electrodes in rechargeable lithium batteries. Herein, we report that the thin-film Cu3N coating can greatly suppress the lithium dendrite growth on the Cu current collector.
Quan Li +8 more
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Rational Design of an Interfacial Bilayer for Aqueous Dendrite-Free Zinc Anodes
ACS Applied Materials & Interfaces, 2021Aqueous zinc (Zn) metal batteries have been widely studied on account of their evident advantages including low cost, good safety, and high energy density. However, problems associted with the Zn anode, such as dendrite formation and corrosion reaction, severely impact the safety and electrochemical performance of a battery.
Bin Sun +5 more
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Computation-accelerated Design of Dendrite-free Li Batteries
2023The main obstacle to the development of the next-generation Li-based batteries is the formation of Li dendrite on the anode surface. Li dendrite growth contributes to the reduction of coulombic efficiency, poor cycling performance, and internal short circuits.
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Prospects for Dendrite-Free Cycling of Li Metal Batteries
Journal of The Electrochemical Society, 2015We discuss the general origins of three-dimensional (3D) growth and morphology instability that can occur during homoepitaxial electrodeposition on initially planar single crystal surfaces and then focus on specific issues relevant to polycrystalline Li metal electrode dissolution/deposition cycling.
Chen, Qing, Geng, Ke, Sieradzki, Karl
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