Lithium storage in reduced graphene oxides

The effect of varying carboxylic-group content in reduced graphene oxides on the anticorrosive properties of PMMA/reduced graphene oxide composites

“…FTIR spectra of TRG-1400, TRG-1000, TRG-300 and GO Figure 3. XPS C 1s spectra of TRG-1400, TRG-1000, TRG-300 and GO using under similar conditions as those previously reported [23,33].…”

“…Their results imply that the incorporation of GE-ODA into immiscible polymer blends is an efficient means of improving the electrical properties. In addition, there have been studies into using thermal reduction at different temperatures to obtain FGSs of varying degrees of functionalization [22]; these FGSs were subsequently added into polymer matrices of composites and the resultant electrochemical properties were investigated [23]. Recently, some studies reported the anticorrosive capabilities of composites containing graphenebased materials such as GNSs and GO [24][25][26][27]; however, there have been no reports on the addition of FGSs with different degrees of functionalization to PMMA matrices of composites and the resultant impact on the anticorrosive properties.…”

Advanced anticorrosive coatings prepared from electroactive polyimide/graphene nanocomposites with synergistic effects of redox catalytic capability and gas barrier properties

“…Graphene nanosheets were also characterized using X-ray diffraction (XRD), Raman spectra, and SEM and TEM observations, under similar conditions as those previously reported [32,33].…”

Application of GO in Energy Conversion and Storage

“…The conductive RGO itself can replace the conventional graphite in anode. More importantly, the residual functional groups provide wide range of the porous structure formation, which benefits the electrochemical performance of LIBs [69][70][71]. The photothermal reduced GO leads to open-pore structures with micrometer-scale pores, cracks, and intersheet voids (see Fig.…”