A method for optimizing dtb crystallizer guide tube based on fluent
A crystallizer and guide tube technology, applied in numerical simulation, based on Fluent to optimize the field of DTB crystallizer guide tube, can solve the problems of low operating efficiency, low product quality, etc., achieve high operating efficiency, low equipment operation energy consumption, Improve the efficiency of structural design and optimization
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Embodiment 1
[0035] A method based on Fluent to optimize the DTB crystallizer guide tube, providing a numerical calculation method for determining the reasonable size of the DTB crystallizer guide tube, which is realized by the following steps:
[0036] Step 1: Establishment of geometric model of DTB crystallizer
[0037] Use Gambit software to build 5 geometric models of DTB crystallizers, and take the z-axis as the axis of rotation. Except for the diameter of the guide tube and the diameter and height of the stirring blade, the other dimensions of the 5 DTB crystallizer geometric models are exactly the same. The geometry of each DTB crystallizer The height of the guide cylinder of the model is the same, the diameter is 530mm, 730mm, 930mm, 1030mm, 1130mm, 530mm, the diameter of the stirring impeller is 500mm, and the height is 120mm. 530mm ratio OK.
[0038] Step 2: Mesh division of the simulation model
[0039] The entire DTB crystallizer geometric model is divided into two parts, tha...
Embodiment 2
[0049] Step 1: Establishment of geometric model of DTB crystallizer
[0050] Use Gambit software to build 4 geometric models of DTB crystallizers, and take the z-axis as the axis of rotation. The dimensions of the 4 DTB crystallizer geometric models are exactly the same except for the guide tube and stirring paddle, and the height of the guide tube of each DTB crystallizer geometric model is the same , the diameters are 630mm, 730mm, 830mm, 930mm, and 630mm. The diameter of the impeller is 600mm and the height is 140mm. The diameter and height of the other model impellers are determined by multiplying the diameter of the respective guide tube by the ratio of 630mm to 600mm and 140mm respectively.
[0051] Step 2: Mesh division of the simulation model
[0052] The entire DTB crystallizer geometric model is divided into two parts, that is, the paddle area and other areas, which are divided into tetrahedral meshes. The paddle area uses the pro function to encrypt the mesh of the ...
Embodiment 3
[0062] Step 1: Establishment of the geometric model of the DTB crystallizer;
[0063] Using Gambit software to establish 8 geometric models of DTB crystallizers, taking the z-axis as the axis of rotation, the dimensions of the 8 DTB crystallizer geometric models are exactly the same except for the guide tube and the stirring paddle. The height of the guide tubes of each model is the same, and the diameters are 260mm, 360mm, 460mm, 560mm, 660mm, 710mm, 760mm, 860mm, 260mm impeller diameter is 250mm, height is 60mm, other model impeller diameter and height are determined by multiplying 250mm and 60mm by the ratio of the respective guide tube diameter and 260mm.
[0064] Step 2: Mesh division of the simulation model
[0065] The entire computational domain model grid is divided into two parts, namely the paddle area and other areas, which are divided into tetrahedral meshes. The paddle area uses the pro function to encrypt the mesh of the blade part, with a maximum size of 60. Th...
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