Lithography: Electrowetting‐Induced Morphological Evolution of Metal‐Organic Inverse Opals toward a Water‐Lithography Approach (Adv. Funct. Mater. 7/2017)

Plasma‐Assisted Nitridation Modulates the Electronic Structure of the NiSe 2 /Ni@Ni 3 N Ternary Heterojunction Enhancing Its Dual‐Function Catalytic Performance and Inhibiting Zn Dendrite Growth in Rechargeable Zinc‐Air Batteries

“…Furthermore, it also suggests that the interfacial Ni sites within the heterostructures—particularly those embedded in Ni 3 N and NiSe 2 —serve as the dominant active centers, benefiting from favorable electronic modulation at the phase boundaries, which is consistent with previous literature reports. [ 23,43 ]…”

Plasma‐Assisted Nitridation Modulates the Electronic Structure of the NiSe 2 /Ni@Ni 3 N Ternary Heterojunction Enhancing Its Dual‐Function Catalytic Performance and Inhibiting Zn Dendrite Growth in Rechargeable Zinc‐Air Batteries

“…Furthermore, it also suggests that the interfacial Ni sites within the heterostructures—particularly those embedded in Ni 3 N and NiSe 2 —serve as the dominant active centers, benefiting from favorable electronic modulation at the phase boundaries, which is consistent with previous literature reports. [ 23,43 ]…”

Biphase Alloy Nanoheterojunction Encapsulated within N‐Doped Carbon Nanotubes as Bifunctional Oxygen Electrocatalyst for High‐Performance Zn‐Air and Mg‐Air Batteries

“…The I D :I G value of CoFe‐NiFe@NCNT was calculated as 1.11, which was superior to that of Co@NCNT (1.09) and NiFe@NCNT (1.03), signifying that more marginal defect structures within CoFe‐NiFe@NCNT would expedite the exposure of more active sites. [ 45,46 ] Meanwhile, a broad 2D diffraction peak was witnessed ≈2683 cm −1 , indicating that there exist more disordered edge defects and higher degree of structural defects in the carbon lattice of the biphase alloys heterojunction, which manifested superior oxygen electrocatalytic activity. Nitrogen adsorption‐desorption techniques were employed to delineate the pore size distributions and specific surface area, which are intimately associated with the revelation of active sites and the material translocation during electrocatalysis.…”

Constructing Artificial Zincophilic Interphases Based on Indium–Organic Frameworks as Zinc Dendrite Constraint for Rechargeable Zinc–Air Battery

“…After 700 h, the charge–discharge voltage gap of the Zn–air battery is 0.92 V, which represents only a 0.017% per hour increase compared to the initial charge–discharge voltage gap of 0.82 V. When compared to recent Zn–air battery literatures, the performance superiority of constructing IOF‐based artificial SEI layer is emphasized, as summarized in Figure 6d and Table S1 (Supporting Information). [ 31,43–90 ]…”

Plasma‐Assisted Nitridation Modulates the Electronic Structure of the NiSe 2 /Ni@Ni 3 N Ternary Heterojunction Enhancing Its Dual‐Function Catalytic Performance and Inhibiting Zn Dendrite Growth in Rechargeable Zinc‐Air Batteries

“…Furthermore, it also suggests that the interfacial Ni sites within the heterostructures—particularly those embedded in Ni 3 N and NiSe 2 —serve as the dominant active centers, benefiting from favorable electronic modulation at the phase boundaries, which is consistent with previous literature reports. [ 23,43 ]…”

Biphase Alloy Nanoheterojunction Encapsulated within N‐Doped Carbon Nanotubes as Bifunctional Oxygen Electrocatalyst for High‐Performance Zn‐Air and Mg‐Air Batteries

“…The I D :I G value of CoFe‐NiFe@NCNT was calculated as 1.11, which was superior to that of Co@NCNT (1.09) and NiFe@NCNT (1.03), signifying that more marginal defect structures within CoFe‐NiFe@NCNT would expedite the exposure of more active sites. [ 45,46 ] Meanwhile, a broad 2D diffraction peak was witnessed ≈2683 cm −1 , indicating that there exist more disordered edge defects and higher degree of structural defects in the carbon lattice of the biphase alloys heterojunction, which manifested superior oxygen electrocatalytic activity. Nitrogen adsorption‐desorption techniques were employed to delineate the pore size distributions and specific surface area, which are intimately associated with the revelation of active sites and the material translocation during electrocatalysis.…”

Constructing Artificial Zincophilic Interphases Based on Indium–Organic Frameworks as Zinc Dendrite Constraint for Rechargeable Zinc–Air Battery

“…After 700 h, the charge–discharge voltage gap of the Zn–air battery is 0.92 V, which represents only a 0.017% per hour increase compared to the initial charge–discharge voltage gap of 0.82 V. When compared to recent Zn–air battery literatures, the performance superiority of constructing IOF‐based artificial SEI layer is emphasized, as summarized in Figure 6d and Table S1 (Supporting Information). [ 31,43–90 ]…”

Plasma‐Assisted Nitridation Modulates the Electronic Structure of the NiSe 2 /Ni@Ni 3 N Ternary Heterojunction Enhancing Its Dual‐Function Catalytic Performance and Inhibiting Zn Dendrite Growth in Rechargeable Zinc‐Air Batteries

“…Furthermore, it also suggests that the interfacial Ni sites within the heterostructures—particularly those embedded in Ni 3 N and NiSe 2 —serve as the dominant active centers, benefiting from favorable electronic modulation at the phase boundaries, which is consistent with previous literature reports. [ 23,43 ]…”

Biphase Alloy Nanoheterojunction Encapsulated within N‐Doped Carbon Nanotubes as Bifunctional Oxygen Electrocatalyst for High‐Performance Zn‐Air and Mg‐Air Batteries

“…The I D :I G value of CoFe‐NiFe@NCNT was calculated as 1.11, which was superior to that of Co@NCNT (1.09) and NiFe@NCNT (1.03), signifying that more marginal defect structures within CoFe‐NiFe@NCNT would expedite the exposure of more active sites. [ 45,46 ] Meanwhile, a broad 2D diffraction peak was witnessed ≈2683 cm −1 , indicating that there exist more disordered edge defects and higher degree of structural defects in the carbon lattice of the biphase alloys heterojunction, which manifested superior oxygen electrocatalytic activity. Nitrogen adsorption‐desorption techniques were employed to delineate the pore size distributions and specific surface area, which are intimately associated with the revelation of active sites and the material translocation during electrocatalysis.…”

Constructing Artificial Zincophilic Interphases Based on Indium–Organic Frameworks as Zinc Dendrite Constraint for Rechargeable Zinc–Air Battery

“…After 700 h, the charge–discharge voltage gap of the Zn–air battery is 0.92 V, which represents only a 0.017% per hour increase compared to the initial charge–discharge voltage gap of 0.82 V. When compared to recent Zn–air battery literatures, the performance superiority of constructing IOF‐based artificial SEI layer is emphasized, as summarized in Figure 6d and Table S1 (Supporting Information). [ 31,43–90 ]…”