SnS nanosheets on carbon foam as a flexible anode platform for rechargeable Li- and Na-ion batteries

Flexible Centrifugally Spun N, S-Doped SnS2-Including Porous Carbon Nanofiber Electrodes for Na-Ion Batteries

“…CNFs with high mechanical stability and excellent electronic conductivity act as a buffer for large volume change and offer excellent pathways for current. , CNFs have been commonly studied for many applications including energy storage, filtration, sensors, and biomedical application since they have superior properties such as high specific surface area, high porosity, uniform interconnected porous 3D structure, and smaller basis weight. , Electrospinning is the most common technique used to produce nanofibers. However, the production rate is very low for electrospun nanofibers.…”

“…Centrifugal spinning offers a fast, environmentally friendly, and safe approach to prepare nanofibers with tunable morphology and various compositions. Moreover, there is huge demand for flexible and wearable electronic devices and it is vital to develop flexible and foldable electrodes with high electrochemical performance. , Furthermore, designing binder-free, flexible electrodes improves the energy density and thus fabrication of flexible electrodes is essential to constructing flexible energy storage materials and devices. ,,,− Even though some studies have been reported on flexible electrodes, , highly flexible nanostructured metal sulfide/CNF-based anodes for SIBs via fast and scalable centrifugal spinning technique have not yet been reported.…”

Metal–Organic Framework-Derived ZnSe- and Co0.85Se-Filled Porous Nitrogen-Doped Carbon Nanocubes Interconnected by Reduced Graphene Oxide for Sodium-Ion Battery Anodes

“…The above reports indicate that combining with carbonbased materials is a promising method to optimize the electrochemical performance of electrode materials. 11,32,33 Metal−organic frameworks (MOFs) are coordination polymer materials that have developed rapidly in the past decade. Due to their tunable chemical composition and unique three-dimensional porous structure, they have been widely used in the fields of batteries, 34,35 catalysis, 36,37 and supercapacitors.…”

“…In addition, Na + has a high content in the earth’s crust and is widely distributed. Therefore, the cost of developing SIBs is lower than that of LIBs. − However, the radius of Na + (1.06 Å) is larger than that of Li + (0.76 Å), which limits the diffusion of Na + in the anode and causes large volume expansion of the electrode material during the electrochemical process, resulting in poor dynamic performance and rapid capacity decay, which severely restricts the application potential of SIBs. − Therefore, it is necessary to develop advanced anode materials for SIBs.…”

“…Zhang et al prepared an independent Co 0.85 Se nanosheet/graphene composite membrane (Co 0.85 Se NSs/G) in which Co 0.85 Se NSs are uniformly anchored on the graphene, forming sheet-to-sheet nanostructures with a strong interfacial interaction, which exhibits a reversible capacity of 193.8 mA h g –1 after 100 cycles at 0.5 A g –1 . The above reports indicate that combining with carbon-based materials is a promising method to optimize the electrochemical performance of electrode materials. ,, …”