A spray type hydrate continuous reaction device
A reaction device, hydrate technology, applied in the direction of feeding device, chemical/physical/physicochemical fixed reactor, chemical/physical process, etc., can solve the problems of bulky magnetic drive, increased energy consumption, high mechanical energy, etc. Achieve the effects of simple structure, maintaining pressure and increasing fluidity
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Embodiment 1
[0022] The main structure of the spray-type hydrate continuous reaction device involved in this embodiment includes a reactor 1, a fluidized throttle 2, a fluidized throttle shell 3 and a pipeline 4; the bottom of the reactor 1 and the fluidized throttle 2 connection, the outer periphery of the fluidization restrictor 2 is provided with a fluidization restrictor casing 3, and an air chamber 230 is formed between the fluidization restrictor 2 and the fluidization restrictor casing 3. The bottom is connected with the pipeline 4; the reaction kettle 1 is composed of the cover body 11, the upper cylinder 12 and the upper cone 13 connected in sequence from top to bottom, the interior of the upper cylinder 12 forms a cylindrical cavity 121, and the interior of the upper cone 13 forms a cone In the cavity 131, the upper part of the upper cylinder 12 is provided with an air inlet pipe 14 and a liquid inlet pipe 15 which are parallel to each other. The air inlet pipe 14 is on the top an...
Embodiment 2
[0025] The main structure of the spray-type hydrate continuous reaction device involved in this embodiment is the same as that of Embodiment 1. The fluidized restrictor 2 and the fluidized restrictor shell 3 are different. The fluidized restrictor 2 is arranged from top to bottom. The upper porous cone 21 and the throttle cylinder 22 are connected in sequence. The upper porous cone 21 forms an upper vulcanized cone cavity 211, the throttle cylinder 22 forms a throttle cavity 221, and the top circumference of the upper porous cone 21 forms a throttling cavity 221. The upper flange 24 is provided, the bottom circumference of the throttle cylinder 22 is provided with a lower flange 25, and the upper porous cone 21 is provided with a number of ventilation holes 26 at equal intervals along the conical generatrix and the circumferential direction. The conical hole 261 and the cylindrical hole 262 are formed; the fluidization restrictor housing 3 is formed by connecting the transition...
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