Construction of robust coupling interface between MoS2 and nitrogen doped graphene for high performance sodium ion batteries

Controllable Synthesis of Novel Orderly Layered VMoS2 Anode Materials with Super Electrochemical Performance for Sodium-Ion Batteries

“…37-1492), respectively. 28 It should be noted that no peaks relating to the impurities were found, indicating that the pure-phase OL-VMS was obtained. Moreover, the position of the peak corresponding to the (002) plane was just located in between the (002) plane peak of MoS 2 and the (001) plane peak of VS 2 , revealing that the interlayer spacing of OL-VMS should be larger than that of VS 2 but smaller than that of MoS 2 .…”

“…Figure a displays the typical XRD spectra of the obtained OL-VMS samples, in which four main peaks located at 2θ = 14.56°, 33.07°, 39.51°, and 58.29° are attributed to the (002), (100), (103), and (110) planes of 2H-MoS 2 (JCPDS no. 37-1492), respectively . It should be noted that no peaks relating to the impurities were found, indicating that the pure-phase OL-VMS was obtained.…”

Sandwich Structures Constructed by ZnSe⊂N‐C@MoSe2 Located in Graphene for Efficient Sodium Storage

“…Selecting a suitable anode material for SIBs is more difficult because Na + (1.02 Å) radius is larger than that of Li + (0.76 Å). [10,11] For example, graphene as a well-established LIBs anode material is not suitable for Na + storage. [12] Therefore, designing and constructing a high-property anode material for SIBs is an urgently solved problem for them to replace fossil fuels.…”

Highly active Fe7S8 encapsulated in N-doped hollow carbon nanofibers for high-rate sodium-ion batteries

“…Unfortunately, it remains challenging to explore suitable anode materials with higher capacity, better cycling stability as well as higher initial coulombic efficiency (ICE) for large-size Na + storage to match the high-performance cathodes [5,11]. Among the currently reported anode materials for SIBs, nanostructured transition metal sulfides (TMSs) show an overwhelming capacity advantage through multielectron reaction to accommodate sodium ion [13][14][15][16][17].…”