“…2.1.6 Electrochemical method. A novel approach to the synthesis of BG based on the electrochemical oxidation of boron carbide in a molten electrolyte consisting of alkali metal halides on the surface of platinum was advanced by Yolshina et al 98 They reported on the preparation of BG defect-free large films by electrochemical synthesis in molten alkali chlorides. Li et al 95 reported using electrochemical methods to prepare SG sheets, combining graphite exfoliation and in situ sulfur doping.…”
This review focuses on synthesis methods for N, B, P, and S co-doped graphenes and graphene-based composites and comprehensively discusses their recent applications in the fields of sensors, adsorbents and catalysis.
“…2.1.6 Electrochemical method. A novel approach to the synthesis of BG based on the electrochemical oxidation of boron carbide in a molten electrolyte consisting of alkali metal halides on the surface of platinum was advanced by Yolshina et al 98 They reported on the preparation of BG defect-free large films by electrochemical synthesis in molten alkali chlorides. Li et al 95 reported using electrochemical methods to prepare SG sheets, combining graphite exfoliation and in situ sulfur doping.…”
This review focuses on synthesis methods for N, B, P, and S co-doped graphenes and graphene-based composites and comprehensively discusses their recent applications in the fields of sensors, adsorbents and catalysis.
“…6,7 Recently, doping of carbon materials such as graphene, CNTs and porous carbon materials with various heteroatoms (such as N, B, P and S) has been a promising approach to tailor the electronic properties of the sp 2 carbon structures and enhance the electrochemical and physical properties of the product. [8][9][10][11][12] Generally, B-doped carbon nanomaterials could act as p-type and N-or S-doped carbon nanomaterials could act as n-type conductors. [13][14][15][16][17] Theoretical studies showed that the substitutional doping can change the energy gap of carbon nanostructures, leading to change their conductivity and chemical reactivity.…”
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