A resource utilization method of sulfur waste residue in wet desulfurization process
A wet desulfurization and resource utilization technology, applied in chemical instruments and methods, sulfur compounds, inorganic chemistry, etc., can solve the problems of limited industrial application, high environmental protection pressure, and lengthy processes, and achieve low cost, reduce raw material costs, and equipment. less demanding effects
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Embodiment 1
[0034] The preparation method of the present embodiment comprises the following steps:
[0035] Step 1, put 40kg wet desulfurization process sulfur waste residue and 10kg strip wood activated carbon into the reactor 3 through the feeding port 2, wherein the wet desulfurization process sulfur waste residue is placed on the upper layer of activated carbon, such asfigure 1 As shown, the black dots in the reactor 3 in the figure represent the sulfur waste residue of the wet desulfurization process, and the gray dots represent activated carbon. The reactor 3 is closed and then heated to 125°C for 60 minutes;
[0036] Step 2: Introducing nitrogen gas with a temperature of 220° C. into the reactor 3 heated and kept warm in step 1 through the second vent pipe 5 and continuing to keep warm for 80 minutes;
[0037] Step 3, send the gas flowing out of the reactor 3 after continuing to keep warm in step 2 into the sulfur trapping device through the first ventilation pipe 1, and then obtain...
Embodiment 2
[0040] The preparation method of the present embodiment comprises the following steps:
[0041] Step 1, put 80kg of wet desulfurization process sulfur waste residue and 10kg of strip-shaped coal-based activated carbon into the reactor 3 in layers through the feed port 2, wherein the wet desulfurization process sulfur waste residue is placed on the upper layer of the activated carbon, such as figure 1 As shown, the black dots in the reactor 3 in the figure represent the sulfur waste residue of the wet desulfurization process, and the gray dots represent activated carbon. The reactor 3 is closed and then heated to 140°C for 90 minutes;
[0042] Step 2: Introducing nitrogen gas with a temperature of 330° C. into the heated and insulated reactor 3 through the second vent pipe 5 to continue to insulate for 70 minutes;
[0043] Step 3, send the gas flowing out of the reactor 3 after continuing to keep warm in step 2 into the sulfur trapping device through the first ventilation pipe ...
Embodiment 3
[0046] The preparation method of the present embodiment comprises the following steps:
[0047] Step 1, put 5kg of wet desulfurization process sulfur waste residue and 10kg strip wood activated carbon into reactor 3 in layers through feeding port 2, wherein the wet desulfurization process sulfur waste residue is placed on the upper layer of activated carbon, such as figure 1 As shown, the black dots in the reactor 3 in the figure represent the sulfur waste residue of the wet desulfurization process, and the gray dots represent activated carbon. The reactor is sealed and then heated to 110°C for 60 minutes;
[0048] Step 2, feed nitrogen gas with a temperature of 180° C. into the reactor 3 heated and kept warm in step 1 through the second ventilation pipe 5 and continue to keep warm for 60 minutes;
[0049] Step 3, send the gas flowing out of the reactor 3 after continuing to keep warm in step 2 into the sulfur trapping device through the first ventilation pipe 1, and then obta...
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