N-doped Graphene quantum dots

Specification of N-doped Graphene quantum dots:

Product name:N-doped Graphene quantum dots

Appearance: White to light yellow powder
Thickness: 1-6nm
Horizontal size: ＜ 10nm

Note: We can supply different size products of N-doped Graphene quantum dots according to client's requirements.

Nitrogen doped graphene quantum dots are a type of graphene quantum dots doped with nitrogen elements, which have many unique characteristics. Compared with traditional graphene quantum dots, nitrogen doped graphene quantum dots have better performance in photocatalysis, electrochemical catalysis, transparent electrodes, and other fields, and are expected to be widely used in biomedical, environmental remediation, new energy, sensors, and other fields.
The following are the main characteristics and applications of nitrogen doped graphene quantum dots:
Photocatalytic performance: Due to the negative charge generated by nitrogen atoms on graphene quantum dots, nitrogen doped graphene quantum dots have better visible light catalytic performance and can be used for photocatalytic decomposition of organic compounds, environmental remediation of pollutants, and other fields.
Electrochemical catalytic performance: As nitrogen doping can improve the electronic properties of the surface of graphene quantum dots, nitrogen doped graphene quantum dots have better electrochemical catalytic performance and can be used to prepare various electrochemical sensors, catalysts, etc.
Transparent electrode material: Nitrogen doped graphene quantum dots have transparent and high conductivity, and can be used to prepare transparent electrode materials, such as for solar cells, light-emitting diodes, and other devices.
It has good biocompatibility and biosafety, and can be used for drug delivery in the preparation of biosensors, targeted cancer treatment, and other fields.
In summary, nitrogen doped graphene quantum dots have broad application prospects in fields such as photocatalysis, electrochemical catalysis, transparent electrode materials, biomedicine, etc. due to their unique characteristics.