Gas distributed energy system and process using urea as reducing agent for denitrification
A distributed energy and reducing agent technology, applied in gas turbine devices, machine operation mode, separation method, etc., can solve the problems of low denitrification efficiency, nitrogen oxides can not meet the emission requirements, poor environmental performance, etc., to ensure denitrification. Ammonia efficiency, saving equipment investment and improving environmental performance
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Embodiment 1
[0021] Embodiment 1 of the present invention: as figure 1 As shown, a gas-fired distributed energy system using urea as a reducing agent for denitration is composed of a gas turbine system 1, a denitration system 2, and a waste heat cooling and heating power generation system 3. The gas turbine system 1 is set on the top of the system, and the denitrification system 2 and the waste heat cooling and heating power generation system 3 are placed behind the gas turbine system 1 in sequence. The denitrification system 2 includes a bucket elevator 201, a dissolution tank 202, a delivery pump 203, a urea solution tank 204, a delivery circulation device 205, a flow valve 206, a metering distribution device 207, a pyrolysis chamber 208 and an SCR reactor 209 connected in sequence, The flow valve 206 is also connected to the urea solution tank 204 , and the metering distribution device 207 and the pyrolysis chamber 208 are both connected to the gas turbine system 1 . There are a large ...
Embodiment 2
[0024] Embodiment 2: as figure 1 As shown, the gas-fired distributed energy system process using urea as a reducing agent for denitrification adopts the above-mentioned gas-fired distributed energy system, including the following process flow:
[0025] In the gas turbine system 1, the air is pressurized by the air compressor 101 and becomes high-pressure air and enters the air preheater 102. The heated air enters the combustor 103 and combusts with natural gas. After the chemical energy of the fuel is fully released, the combustor 103 The outlet flue gas enters the gas turbine 104 to do work, converting mechanical energy into electrical energy; the flue gas at the outlet of the gas turbine 104 is used as a heat source to heat the air in the air preheater 102, and the flue gas at the outlet of the gas turbine 104 after heat exchange in the air preheater 102 flows through the flue gas Flow divider 105, a part of the flue gas is introduced into the metering distribution device 20...
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