A kind of biochar with heavy metal adsorption and its preparation method and application
A technology for adsorbing heavy metals and biochar, applied in the direction of carbon preparation/purification, non-metallic elements, chemical instruments and methods, etc., which can solve the problems of complex treatment process, many steps, and high cost
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Embodiment 7
[0093] Embodiment 7 Copper ion adsorption experiment
[0094] Weigh respectively 0.05g of the samples obtained from the compatibility of the above examples 1 to 6, and place them in a 500ml wide-mouth conical flask. In each sample, add CU with a concentration of 100mg / L 2+ solution. Place the Erlenmeyer flask in a double-layer constant temperature shaker at (25±5)°C, shake at a speed of 150r / min for 12h, take out a 0.45μm microporous filter membrane, and measure Cu in the filtrate with a flame atomic absorption spectrometer 2+ , and calculate the combined materials of different examples for the Cu in the solution 2+ adsorption capacity and removal rate.
[0095] As can be seen from Table 7, the composite adsorption materials of different component ratios have significantly different adsorption capacities to copper ions; 2+ The adsorption is also the strongest, followed by Example 6, which is better than other groups, showing that the composite adsorption material composed o...
Embodiment 8
[0098] Embodiment 8 nickel ion adsorption experiment
[0099] Take respectively 0.05g of the samples obtained by the compatibility of the above examples 1 to 6, place them in a 500ml wide-mouth conical flask, and in each sample, add a concentration of 100mg / L of Ni 2+ solution. Place the Erlenmeyer flask in a double-layer constant temperature shaker at (25±5)°C, shake at a speed of 150r / min for 12h, take out a 0.45μm microporous filter membrane, and use a flame atomic absorption spectrometer to measure Ni in the filtrate 2+ , and calculate the combined materials of different examples for the Ni in the solution 2+ adsorption capacity and removal rate.
[0100] As can be seen from Table 8, the composite adsorption material of different component proportions is obviously different to the adsorption capacity of nickel ion; Embodiment 1 of the present invention is to Ni ion 2+ The adsorption effect is also the strongest, which is better than other groups, indicating that the compo...
Embodiment 9
[0103] Embodiment 9 Chromium ion adsorption experiment
[0104] Take by weighing each 0.05g of the samples obtained by the compatibility of the above examples 1 to 6 respectively, place them in a 500ml wide-mouth conical flask, and add a concentration of 100mg / L of Cd in each sample. 2+ solution. Place the Erlenmeyer flask in a double-layer constant temperature shaker at (25±5)°C, shake at a speed of 150r / min for 12h, take out a 0.45μm microporous filter membrane, and measure the Cd in the filtrate with a flame atomic absorption spectrometer 2+ , and calculate the combined materials of different examples for the Cd in the solution 2+ adsorption capacity and removal rate.
[0105] As can be seen from Table 9, the composite adsorbents of different component ratios have significantly different adsorption capacities to chromium ions; 2+ The adsorption effect is better than that of other groups, indicating that the composite adsorption material composed of the raw materials in E...
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