Reaction device of circulating fluidized bed
A circulating fluidized bed and reaction device technology, applied in cracking, catalyst, catalytic cracking, etc., can solve the problem of unsatisfactory separation of oil and gas, delay and catalyst, and achieve the effect of improving separation efficiency
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Embodiment 1
[0078] This embodiment takes the alkane catalytic dehydrogenation reaction device as an example, in combination with the attached figure 1 -2, 4-5 further specifically illustrate the reaction device of the present application.
[0079] Such as figure 1 As shown, the alkane catalytic dehydrogenation reaction device includes a reactor 2 and a settler 7 of the reactor. The reactor 2 includes a dense phase section and a dilute phase delivery pipe 5 , and the dilute phase delivery pipe 5 extends into a settler 7 . Several layers of grids 3 are arranged in the dense phase section.
[0080] The settler 7 includes a cyclone rapid separation assembly 6 , and the cyclone rapid separation assembly 6 includes a first flow divider 61 , a second flow divider 62 , and a third flow divider 63 . The first, second and third splitters are all located above the outlet of the reactor.
[0081]The swirl quick separation component can also achieve the effect of quick separation of oil gas and ca...
experiment example 1
[0103] In addition to the different fast separation components, other structural references of other reaction devices are as follows figure 1 shown. In the reaction device of this experimental example, a conical splitter is arranged above the outlet of the dilute phase conveying pipe in the settler, such as image 3 As shown, the cross-sectional area of the lower edge of the diverter is three times the cross-sectional area of the outlet of the dilute-phase conveying pipe, the angle between the conical generatrix of the diverter and the bottom surface is 60°, and the position of the diverter and the outlet of the dilute-phase conveying pipe constitutes The area of the annulus is 1.5 times the area of the outlet of the dilute phase conveying pipe. The lower edge of the splitter is located in the dense-phase section of the settler, and the lower edge of the splitter is 2m away from the dilute-dense phase interface in the settler. The linear velocity at the outlet of the...
experiment example 2
[0105] Other conditions remain the same, this is the swirl fast separation component of the experimental example using the attached figure 1 Composite shunt shown. as attached Figure 5 As shown, the angles between the conical generatrices of the first, second and third diverters and the bottom surface are all 60°, the bottom surface of the first diverter is higher than the outlet of the dilute-phase delivery pipe, and the distance between the first diverter and the outlet of the dilute-phase delivery pipe The area of the annulus formed by the position of the annulus area (fluid flow area) is 2.5 times the area of the outlet of the dilute-phase conveying pipe, the bottom area of the second diverter is 3 times the cross-sectional area of the outlet of the dilute-phase conveying pipe, and the area of the first diverter The distance from the second splitter is 1.2 times the diameter of the outlet of the dilute-phase delivery pipe, the top outlet area of the second sp...
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