Ultra trace aromatic nitro compound electrochemical detection method
A technology of aromatic nitro compounds, applied in the field of detection of aromatic nitro compounds, can solve problems such as low vapor pressure, limited effective early warning mechanism for explosive source detection, and difficulty in identifying the molecular types of explosive substances, etc., to achieve convenient operation, Improved detection sensitivity and fast response
- Summary
- Abstract
- Description
- Claims
- Application Information
AI Technical Summary
Problems solved by technology
Method used
Image
Examples
Embodiment 1
[0058] (1) Fullerene C 60 Preparation of nanomaterial modified electrodes:
[0059] The solid working electrode glassy carbon electrode should be cleaned before use, first use α-Al 2 o 3 Polish and sonicate with distilled water. Then put it in an oven at about 45°C to dry the surface of the electrode.
[0060] Fullerene C 60 Dissolve in toluene solvent, take an appropriate amount of the solution and drop it on the surface of the above-mentioned electrode. After the toluene solvent evaporates naturally at room temperature, C is evenly generated on the surface of the glassy carbon electrode. 60 nanomaterials, such as figure 1 shown.
[0061] (2) Utilize fullerene C 60 Nanomaterials modify the working electrode to detect the electrochemical process of ultra-trace aromatic nitro compounds in the electrolyte solution:
[0062] (1) adopt simple three-electrode electrochemical system, and comprise working electrode (C 60 Working electrode modified by nanomaterials), counter ...
Embodiment 2
[0068] (1) Fullerene C 70 Preparation of nanomaterial modified electrodes:
[0069] The solid working electrode graphite electrode should be cleaned before use, first use α-Al 2 o 3 Polish and sonicate with distilled water. Then put it in an oven at about 45°C to dry the surface of the electrode.
[0070] Fullerene C 70 Dissolve in the carbon disulfide solvent, take an appropriate amount of the solution and drop it on the surface of the above electrode. After the carbon disulfide solvent evaporates naturally at room temperature, C 70 nanomaterials.
[0071] (2) Utilize fullerene C 70 Nanomaterials modify the working electrode to detect the electrochemical process of ultra-trace aromatic nitro compounds in the electrolyte solution:
[0072] (1) adopt simple three-electrode electrochemical system, and comprise working electrode (C 70 Glassy carbon electrode modified by nanomaterials), counter electrode (gold wire) and reference electrode (saturated calomel electrode). Fir...
Embodiment 3
[0078] (1) Fullerene Gd@C 82 Preparation of nanomaterial modified electrodes:
[0079] The solid working electrode glassy carbon electrode should be cleaned before use, first use α-Al 2 o 3 Polish and sonicate with distilled water. Then put it in an oven at about 45°C to dry the surface of the electrode.
[0080] Good Gd@C will be synthesized at room temperature 82 Disperse the nanomaterials in the cyclohexane solvent, take an appropriate amount of the solution and drop it on the surface of the above electrode, let the cyclohexane evaporate naturally at room temperature, and evenly form Gd@C on the surface of the glassy carbon electrode. 82 nanomaterials, such as image 3 shown.
[0081] (2) Using fullerene Gd@C 82 Nanomaterials modify the working electrode to detect the electrochemical process of ultra-trace aromatic nitro compounds in the electrolyte solution:
[0082] (I) Adopt a simple three-electrode electrochemical system, and include the working electrode (Gd@C ...
PUM
Login to View More Abstract
Description
Claims
Application Information
Login to View More 