Coal-based syngas single-pass methane production process in slurry bed
A coal-based synthesis gas, slurry bed technology, applied in gas fuel, petroleum industry, chemical/physical process and other directions, can solve the problems of cumbersome and lengthy process and high reaction temperature of SNG chemical project, achieve good economic benefits and simple process flow , control and reliable effect
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Embodiment 1
[0025] as attached figure 1 As shown, the 3.0MPa, 40°C fresh gas from the upstream (gas composition mole fraction H 2 0.678, CO0.222, CO 2 0.012, CH 4 0.081,N 2 0.003, C 2 h 6 0.004), the trace water that may exist in it is separated by the inlet liquid separation tank 1, and then enters the shell side of an anti-inlet preheater 2, and exchanges heat with the outlet gas of the first methane synthesis reactor, and the temperature rises to 260°C. The preheated gas enters the first methane synthesis reactor 3. After the reaction, the outlet temperature of the gas rises to 280°C, and after the heat exchange between the outlet gas and a reverse inlet gas, the temperature drops to 150°C and enters a reverse outlet liquid separation tank 4 for gas-liquid Separation, the gas at the outlet of the liquid separation tank enters the shell side of the second reverse inlet preheater 5, and exchanges heat with the outlet gas of the second methane synthesis reactor, the temperature ...
Embodiment 2
[0029] as attached figure 1 As shown, the 3.0MPa, 40°C fresh gas from the upstream (gas composition mole fraction H 2 0.678, CO0.222, CO 2 0.012, CH 4 0.081,N 2 0.003, C 2 h 6 0.004), through the inlet liquid separation tank 1 to separate the trace water that may exist in it, and then enter the shell side of an anti-inlet preheater 2, and exchange heat with the outlet gas of the first methane synthesis reactor, and the temperature rises to 270 °C, The preheated gas enters the first methane synthesis reactor 3. After the reaction, the outlet temperature of the gas rises to 290°C, and after the heat exchange between the outlet gas and a reverse inlet gas, the temperature drops to 140°C and enters a reverse outlet liquid separation tank 4 for gas-liquid Separation, the gas at the outlet of the liquid separation tank enters the shell side of the second reverse inlet preheater 5, and exchanges heat with the outlet gas of the second methane synthesis reactor, the temperatu...
Embodiment 3
[0033] as attached figure 1 As shown, the 3.0MPa, 40°C fresh gas from the upstream (gas composition mole fraction H 2 0.678, CO0.222, CO 2 0.012, CH 4 0.081,N 2 0.003, C 2 h 6 0.004), the trace water that may exist in it is separated by the inlet liquid separation tank 1, and then enters the shell side of an anti-inlet preheater 2, and exchanges heat with the outlet gas of the first methane synthesis reactor, and the temperature rises to 280°C. The preheated gas enters the first methane synthesis reactor 3. After the reaction, the outlet temperature of the gas rises to 300°C, and after the heat exchange between the outlet gas and a reverse inlet gas, the temperature drops to 130°C and enters a reverse outlet liquid separation tank 4 for gas-liquid Separation, the gas at the outlet of the liquid separation tank enters the shell side of the second reverse inlet preheater 5, and exchanges heat with the outlet gas of the second methane synthesis reactor, the temperature ...
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