Facile synthesis of V4+-doped and graphene-decorated V2O5/biomass carbon nanocomposite using graphene quantum dots for supercapacitors with wide voltage window and high energy density

Yang, Chen; Li, Ruiyi; Li, Zaijun; Cai, Tongxiang; Yang, Yongqiang; Liu, Xiaohao

doi:10.1039/d3nj03748g

New J. Chem.

2023

DOI: 10.1039/d3nj03748g

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Facile synthesis of V⁴⁺-doped and graphene-decorated V₂O₅/biomass carbon nanocomposite using graphene quantum dots for supercapacitors with wide voltage window and high energy density

Chen Yang,

Ruiyi Li,

Zaijun Li

et al.

Abstract: This study reports a strategy for synthesis of V4+-doped and graphene-decorated V2O2/biomass carbon nanocomposite using graphene quantum dot. The introduction of graphene quantum dots and cotton significantly improves the supercapacitor performance.

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Synthesis of folic acid, histidine, and serine-functionalized and boron and phosphorus-doped graphene quantum dots with excellent yellow luminescence behavior in aqueous/solid states and their use for the fluorescence detection of Fe²⁺ in urine

Ruiyi,

Xie,

Wang

et al. 2024

New J. Chem.

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Synthesis of folic acid, histidine, and serine-functionalized and boron and phosphorus-doped graphene quantum dots with excellent yellow luminescence behavior in aqueous/solid states and their use for the fluorescence detection of Fe²⁺ in urine

Ruiyi,

Xie,

Wang

et al. 2024

New J. Chem.

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Construction of an advanced Co-doped V₂O₃ electrode material with significantly enhanced conductivity and structural stability for supercapacitors using asparagic acid-functionalized graphene quantum dots

Ruiyi,

Chen,

Zaijun

et al. 2024

New J. Chem.

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Facile synthesis of V⁴⁺-doped and graphene-decorated V₂O₅/biomass carbon nanocomposite using graphene quantum dots for supercapacitors with wide voltage window and high energy density

Abstract: This study reports a strategy for synthesis of V4+-doped and graphene-decorated V2O2/biomass carbon nanocomposite using graphene quantum dot. The introduction of graphene quantum dots and cotton significantly improves the supercapacitor performance.

Cited by 2 publications

References 45 publications

Synthesis of folic acid, histidine, and serine-functionalized and boron and phosphorus-doped graphene quantum dots with excellent yellow luminescence behavior in aqueous/solid states and their use for the fluorescence detection of Fe²⁺ in urine

Synthesis of folic acid, histidine, and serine-functionalized and boron and phosphorus-doped graphene quantum dots with excellent yellow luminescence behavior in aqueous/solid states and their use for the fluorescence detection of Fe²⁺ in urine

Construction of an advanced Co-doped V₂O₃ electrode material with significantly enhanced conductivity and structural stability for supercapacitors using asparagic acid-functionalized graphene quantum dots

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Facile synthesis of V4+-doped and graphene-decorated V2O5/biomass carbon nanocomposite using graphene quantum dots for supercapacitors with wide voltage window and high energy density

Abstract: This study reports a strategy for synthesis of V4+-doped and graphene-decorated V2O2/biomass carbon nanocomposite using graphene quantum dot. The introduction of graphene quantum dots and cotton significantly improves the supercapacitor performance.

Cited by 2 publications

References 45 publications

Synthesis of folic acid, histidine, and serine-functionalized and boron and phosphorus-doped graphene quantum dots with excellent yellow luminescence behavior in aqueous/solid states and their use for the fluorescence detection of Fe2+ in urine

Synthesis of folic acid, histidine, and serine-functionalized and boron and phosphorus-doped graphene quantum dots with excellent yellow luminescence behavior in aqueous/solid states and their use for the fluorescence detection of Fe2+ in urine

Construction of an advanced Co-doped V2O3 electrode material with significantly enhanced conductivity and structural stability for supercapacitors using asparagic acid-functionalized graphene quantum dots

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Facile synthesis of V⁴⁺-doped and graphene-decorated V₂O₅/biomass carbon nanocomposite using graphene quantum dots for supercapacitors with wide voltage window and high energy density

Synthesis of folic acid, histidine, and serine-functionalized and boron and phosphorus-doped graphene quantum dots with excellent yellow luminescence behavior in aqueous/solid states and their use for the fluorescence detection of Fe²⁺ in urine

Synthesis of folic acid, histidine, and serine-functionalized and boron and phosphorus-doped graphene quantum dots with excellent yellow luminescence behavior in aqueous/solid states and their use for the fluorescence detection of Fe²⁺ in urine

Construction of an advanced Co-doped V₂O₃ electrode material with significantly enhanced conductivity and structural stability for supercapacitors using asparagic acid-functionalized graphene quantum dots