Direct use of metals as battery anodes could significantly boost the energy density, but
suffers from limited cycling. To make the batteries more sustainable, one strategy is …

The optimization of crystalline orientation of a Zn metal substrate to expose more Zn (0002)
planes has been recognized as an effective strategy in pursuit of highly reversible Zn metal …

Uncontrolled growth of Zn dendrites hinders the future development of aqueous Zn‐ion
batteries. Despite that the (100) plane possesses better zincophilic ability and fast kinetics …

Dendrite growth and corrosion of Zn metal anodes result in the limited reversibility of
aqueous Zn metal batteries (ZMBs), hindering their prospects as large-scale energy storage …

The practical application of Zn anodes for aqueous rechargeable Zn batteries is impeded by
an uncontrollable dendritic Zn deposition and the associated interface mechanisms that still …

Zn deposition with a surface‐preferred (002) crystal plane has attracted extensive attention
due to its inhibited dendrite growth and side reactions. However, the nucleation and growth …

Aqueous Zn batteries with ideal energy density and absolute safety are deemed the most
promising candidates for next-generation energy storage systems. Nevertheless, stubborn …

Zn metal electrode is the key to enabling the full vision of next-generation Zn-metal batteries
(ZMBs). Thus far, the critical dendrite issue still restricts the Zn anode lifespan, which has …

The low Coulombic efficiency and limited cycle life of zinc (Zn) metal anode resulting from
the severe side reactions and dendrite growth are the major bottlenecks restricting the …

Dendrite‐free Zn anode is the key to avoiding battery failure, which is largely determined by
the crystal growth during the electrodeposition process. Therefore, controlling the specific …