Multi-segment insulation fix bed reactor
An adiabatic fixed bed and reactor technology, applied in chemical instruments and methods, chemical/physical processes, etc., can solve problems such as uneven mixing of two streams of materials, affecting catalyst utilization, selectivity and conversion, and uneven distribution
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Embodiment 1
[0020] Adopt interstage gas mixing device as shown in Figure 1, reactor diameter D=600 millimeters, diameter d of straight pipe 1 = 140 mm, the diameter of the sieve plate d 2 = 160 mm, the diameter of the sieve hole on the sieve plate Φ = 6 mm, the height of the straight pipe h 1 = 100 mm, the height h of the lateral annulus channel 2 =65 millimeters, the horizontal distance l=450 millimeters of two second kinds of material inlet pipes, the angle α=45 ° of cone and horizontal position, the ratio of the horizontal distance of two second kinds of material inlets and reactor diameter is 75 %, the ratio of straight pipe diameter to reactor diameter is 23.3%, the ratio of sieve plate diameter to reactor diameter is 26.7%, the ratio of the opening area of sieve plate to the lateral annulus area is 18.5%, the sieve plate’s The porosity is 26.3%.
[0021] Under the above conditions and structural parameters, the inter-stage gas mixing device can be designed according to the meth...
Embodiment 2
[0023] Adopt interstage gas mixing device as shown in Figure 1, reactor diameter D=1000 millimeters, diameter d of straight pipe 1 = 168 mm, the diameter of the sieve plate d 2 = 168 mm, the diameter of the sieve hole on the sieve plate Φ = 8 mm, the height of the straight pipe h 1 = 160 mm, the height h of the lateral annulus channel 2 =75 millimeters, the horizontal distance l=850 millimeters of two second kinds of material inlet pipes, the angle α=60 ° of cone and horizontal position, the ratio of the horizontal distance of two second kinds of material inlets and reactor diameter is 85 %, the ratio of straight pipe diameter to reactor diameter is 16.8%, the ratio of sieve plate diameter to reactor diameter is 16.8%, the ratio of the opening area of sieve plate to the lateral annulus area is 25.3%, the sieve plate’s The porosity was 45.1%.
[0024] Under the above conditions and structural parameters, by designing the inter-stage gas mixing device according to the metho...
Embodiment 3
[0026] Adopt interstage gas mixing device as shown in Figure 1, reactor diameter D=600 millimeters, diameter d of straight pipe 1= 165 mm, the diameter of the sieve plate d 2 = 165 mm, the diameter of the sieve hole on the sieve plate Φ = 6 mm, the height of the straight pipe h 1 = 120 mm, the height h of the lateral annulus channel 2 =60 millimeters, the horizontal distance l=420 millimeters of two second kinds of material inlet pipes, the angle α=30 ° of cone and horizontal position, the ratio of the horizontal distance of two second kinds of material inlets and reactor diameter is 70 %, the ratio of straight pipe diameter to reactor diameter is 27.5%, the ratio of sieve plate diameter to reactor diameter is 27.5%, the ratio of the opening area of sieve plate to the lateral annulus area is 12.6%, the sieve plate’s The porosity was 18.4%.
[0027] Under the above conditions and structural parameters, the inter-stage gas mixing device can be designed according to the meth...
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