Layered material distribution moving bed reaction device and use method
A reaction device, layered cloth technology, applied in the direction of feeding devices, chemical instruments and methods, nano-carbon, etc., can solve the problem of low utilization rate of catalyst and raw material gas, poor product gas carry-out, production preparation time and post-processing Long time and other problems, to achieve the effect of improving conversion rate and catalyst utilization rate, increasing effective contact area, and avoiding conversion rate reduction
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Embodiment example 1
[0080] Using the layered distribution moving bed reaction device of the present invention, the bottom of the quartz reaction tube 01 is filled with 30 cm high carbon nanotubes through the distributor 03, so that the top of the filled layer of carbon nanotubes is located in the heat preservation area of the heating furnace 02.
[0081] Use the dispenser 03 to spread the helical multi-layer distributed catalyst and carbon nanotube stack on the filled layer of carbon nanotubes, so that the thickness of the single layer of catalyst is 0.1-1mm, and the thickness of the single layer of carbon nanotubes is 3-10mm. Through the control system 06, the nitrogen and hydrogen are passed into the mixing tank 07 at the speed of 120L / h and 60L / h respectively, and the temperature of the heating furnace 02 is set at 600±10°C, and the reduction time is 20min. MOx+xH2→M+xH2O.
[0082] Through the control system 06, biogas (CH4:H2=10:1) is introduced into the mixing tank 07 at a flow rate of 120...
Embodiment example 2
[0086] Using the layered distribution moving bed reaction device of the present invention, the bottom of the quartz reaction tube 01 is filled with 30 cm high carbon nanotubes through the distributor 03, so that the top of the filled layer of carbon nanotubes is located in the heat preservation area of the heating furnace 02.
[0087] Use the dispenser 03 to spread the helical multi-layer distributed catalyst and carbon nanotube stack on the filled layer of carbon nanotubes, so that the thickness of the single layer of catalyst is 0.1-1mm, and the thickness of the single layer of carbon nanotubes is 3-10mm. Through the control system 06, the nitrogen and hydrogen are passed into the mixing tank 07 at the speed of 120L / h and 60L / h respectively, and the temperature of the heating furnace 02 is set at 600±10°C, and the reduction time is 20min. MOx+xH2→M+xH2O.
[0088]Through the control system 06, biogas (CH4:H2=10:1) is introduced into the mixing tank 07 at a flow rate of 180L...
Embodiment example 3
[0092] Using the layered distribution moving bed reaction device of the present invention, the bottom of the quartz reaction tube 01 is filled with 30 cm high carbon nanotubes through the distributor 03, so that the top of the filled layer of carbon nanotubes is located in the heat preservation area of the heating furnace 02.
[0093] 40 g of the catalyst was sprinkled at one time on the packed layer of carbon nanotubes using the distributor 03 . Through the control system 06, the nitrogen and hydrogen are passed into the mixing tank 07 at the speed of 120L / h and 60L / h respectively, and the temperature of the heating furnace 02 is set at 600±10°C, and the reduction time is 20min. MOx+xH2→M+xH2O.
[0094] Through the control system 06, biogas (CH4:H2=10:1) is introduced into the mixing tank 07 at a flow rate of 120L / h, the temperature of the heating furnace 02 is 650±10°C, and the decomposition reaction time is 4 hours. CH4→C+2H2↑
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