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Why is NiO a lithiophilic material? 


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NiO is considered a lithiophilic material due to its ability to guide the homogeneous and smooth deposition of metallic lithium, thus addressing issues like dendrite formation and volume change in lithium metal batteries. The lithiophilic nature of NiO reduces the nucleation barrier for lithium deposition, facilitating uniform plating. Additionally, the formation of a lithiophilic NiO layer on Ni surfaces enhances the wettability of molten lithium, leading to stable anode performance with no dendrite formation even after multiple cycles. Furthermore, the dynamic lithiation process of NiO nanoplates and nanoparticles reveals that NiO undergoes structural changes and breakdown during lithiation, hindering electron transportation due to the formation of Li2O, which impacts cycling performance. These characteristics make NiO a promising lithiophilic material for lithium battery applications.

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NiO is lithiophilic due to its stable morphology, small volume expansion at full lithiation, and facilitation of Li-ion transportation, leading to improved cycling performance and enhanced rate capability.
NiO becomes lithiophilic due to oxidation of Ni-foam, enhancing wettability for molten Li. This transformation allows efficient Li infusion into the foam, improving battery performance significantly.
NiO is lithiophilic due to its ability to reduce nucleation barriers, enabling smooth Li deposition on Ni collector, decreasing current inhomogeneity, facilitating Li-ion transfer, and ensuring good electron conduction.
NiO is lithiophilic due to its ability to rapidly undergo lithiation, leading to significant volume expansion, structural changes, and Li2O formation hindering electron transport, impacting cycling performance.
NiO is lithiophilic as it can regulate lithium nucleation, reduce nucleation overpotential, and promote uniform lithium deposition, aiding in stabilizing the anode/electrolyte interface for lithium metal batteries.

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