Flue gas circulation cooling method for increasing flue gas carbon dioxide concentration
A carbon dioxide and cooling method technology, which is applied in the direction of indirect carbon dioxide emission reduction, combustion method, furnace cooling, etc., can solve the problems of high cost of capture and recovery, carbon emission and greenhouse effect, and exhaust gas into the atmosphere, so as to reduce the greenhouse effect, reduce environmental protection, and reduce carbon emissions
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Embodiment 1
[0017] Step 1, feed gas 2 into the sleeve kiln 1, and start the sleeve kiln 1. The sleeve kiln 1 discharges the flue gas containing carbon dioxide with a concentration above 10% into the heat exchanger 6 .
[0018] In step 2, the heat exchanger 6 sends the flue gas after heat exchange to the dust collector 5 . Step 2 includes step 21, start the blower 3, and deliver the combustion-supporting gas 4 to the heat exchanger 6; step 22, the flue gas discharged from the sleeve kiln 1 enters the heat exchanger 6; step 23, the flue gas and the combustion-supporting gas 4 are in the heat exchanger 6 for heat exchange; step 24, the flue gas after heat exchange enters the dust collector 5; step 25, the combustion-supporting gas enters the sleeve kiln 1.
[0019] Step 3, according to the intake air volume of the cooling gas in the sleeve kiln 1, the exhaust CO in the sleeve kiln 1 2 The heat exchanger 5 transports a certain amount of flue gas after dedusting to the sleeve kiln 1.
[002...
Embodiment 2
[0023] Step 1, feed gas 2 into the sleeve kiln 1, and start the sleeve kiln 1. The sleeve kiln 1 discharges the flue gas containing carbon dioxide with a concentration above 10% into the heat exchanger 6 .
[0024] In step 2, the heat exchanger 6 sends the flue gas after heat exchange to the dust collector 5 . Step 2 includes step 21, start the blower 3, and deliver the combustion-supporting gas 4 to the heat exchanger 6; step 22, the flue gas discharged from the sleeve kiln 1 enters the heat exchanger 6; step 23, the flue gas and the combustion-supporting gas 4 are in the heat exchanger 6 for heat exchange; step 24, the flue gas after heat exchange enters the dust collector 5; step 25, the combustion-supporting gas 4 enters the sleeve kiln 1.
[0025] Step 3, according to the intake air volume of the cooling gas in the sleeve kiln 1, the exhaust CO in the sleeve kiln 1 2 The heat exchanger 5 transports a certain amount of flue gas after dedusting to the sleeve kiln 1.
[0...
Embodiment 3
[0029] Step 1, feed gas 2 into the sleeve kiln 1, and start the sleeve kiln 1. The sleeve kiln 1 discharges the flue gas containing carbon dioxide with a concentration above 10% into the heat exchanger 6 .
[0030] In step 2, the heat exchanger 6 sends the flue gas after heat exchange to the dust collector 5 . Step 2 includes step 21, start the blower 3, and deliver the combustion-supporting gas 4 to the heat exchanger 6; step 22, the flue gas discharged from the sleeve kiln 1 enters the heat exchanger 6; step 23, the flue gas and the combustion-supporting gas 4 are in the heat exchanger 6 for heat exchange; step 24, the flue gas after heat exchange enters the dust collector 5; step 25, the combustion-supporting gas 4 enters the sleeve kiln 1.
[0031] Step 3, according to the intake air volume of the cooling gas in the sleeve kiln 1, the exhaust CO in the sleeve kiln 1 2 The heat exchanger 5 transports a certain amount of flue gas after dedusting to the sleeve kiln 1.
[0...
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