Industrial waste acid and furnace slag treatment method
A technology for waste acid treatment and industrial waste acid, which is applied in the production of hydrogen, etc.
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Embodiment 1
[0051] Embodiment 1, basic experimental procedure (referring to figure 1 shown)
[0052] Prepare experimental equipment: reaction kettle, syringe (as an acid addition device), gas drying tower, gas flow meter, gas collection bottle, silicone hose and hydrogen purification materials, of which hydrogen purification materials can include: 3A molecular sieve, activated carbon, 5A One or a combination of molecular sieves, graphene, graphite flakes, metal hydrides and carbon nanotubes; the form of slag can be block or ground into powder, preferably powder.
[0053] Step A: Connect the reaction kettle, the gas drying tower, the gas flow meter and the gas collection bottle with a silicone hose; the connection method can be series, parallel, or series-parallel.
[0054] Step B: put a slag into the reaction kettle, and put the hydrogen purification material into each gas drying tower.
[0055] Step C: After absorbing an appropriate amount of industrial waste acid with a syringe, slowl...
Embodiment 2
[0058] Embodiment 2, reaction of magnesium smelting furnace bottom slag and industrial waste acid
[0059] The slag used in this embodiment is magnesium smelting bottom slag. Before the experiment, EDS component analysis was carried out for the composition of the magnesium smelting bottom slag, wherein the components include: magnesium 10-25% and chlorine 25-40%; As can be seen from Fig. 2, in a preferred embodiment, the bottom slag composition of this magnesium smelting furnace comprises: magnesium 14-21% and chlorine 26-40%; In addition, the used industrial waste acid can be 6M lead-acid battery electrolyte, 20 -40% potassium sulfate process waste acid (preferably 30%), 1-2.6M ferrous sulfate waste acid (preferably 2.6M), 1.5-2.3M ferrous chloride waste acid (preferably 2.3M) and 1.6-1.8M glacial acetic acid (preferably 1.7M), the following data only present the content of the preferred embodiment for the purpose of illustration.
[0060] Response result
[0061] When the ...
Embodiment 3
[0065] Embodiment 3, the reaction of magnesium die-casting furnace bottom slag and industrial waste acid
[0066] The slag used in this embodiment is magnesium die-casting bottom slag, which includes: magnesium 82-93% and aluminum 5-10%; Figure 7 It can be seen that in a preferred embodiment, the composition of the magnesium die-casting bottom slag includes: 86-91% magnesium and 6-10% aluminum; in addition, the used industrial waste acid can be 6M lead-acid battery electrolyte, 20-40 % potassium sulfate process waste acid (preferably 30%), 1-2.6M ferrous sulfate waste acid (preferably 2.6M), 1.5-2.3M ferrous chloride waste acid (preferably 2.3M) and 1.6 One of -1.8M glacial acetic acid (preferably 1.7M), the following data only present the content of the preferred embodiment for the purpose of illustration.
[0067] Response result
[0068] When the temperature of the reactant is about 55-110° C., the reaction is carried out with the basic experimental steps and conditions ...
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