Strength Analysis and Safety Evaluation of Filter Cartridge

10.6919/ICJE.202205_8(5).0006

Jian You

Pressure Vessel ； Filter Cartridge ； Intersecting Cavity ； Finite Element Analysis

International Core Journal of Engineering

8卷5期（2022 / 05 / 01）

48 - 56

英文

In the actual use of pressure vessels, the fracture and damage accidents of pressure vessels are increasing due to some defects, new defects caused by loads and media in the production and processing, and harsh service conditions of pressure vessels. Therefore, the safety of pressure vessels has also attracted much attention. Compared with ordinary pressure vessels, the filter cartridge has a higher probability of failure than ordinary pressure vessels because it contains intersecting cavities, so it has higher requirements for its safety. In this paper, the finite element software is used to analyze the stress of the pressure vessel filter cartridge and evaluate the stress safety. The defective parts of the pressure vessel are improved by increasing the wall thickness, so as to improve the strength and stiffness, and finally reach the allowable stress limit, which provides a basis for checking whether the pressure vessel is safe or not. The method of finite element analysis can quickly and accurately find the failure cause and failure law, which is an effective way to reduce the recurrence of accidents. At the same time, it is of far-reaching significance to effectively prevent pressure vessel accidents and improve the safety and reliability of equipment.

1. Faupel J H, Harris D B . Stress Concentration in Heavy-Walled Cylindrical Pressure Vessels - Effect of Elliptic and Circular Side Holes[J]. Industrial & Engineering Chemistry, 1957, 49(12):1979-1986.
   連結：
2. Ger de en, J. C. Analysis of Stress Concentrations in Thick Cylinders With Sideholes and Crossholes[J]. Journal of Engineering for Industry, 1972, 94(3):815.
   連結：
3. Sorem J R, Shadley J R, Tipton S M . Design Curves for Maximum Stresses in Blocks Containing Pressurized Bore Intersections[J]. Journal of Mechanical Design, 1991, 113(4):427-431.
   連結：
4. L. M, Masu. Cross bore configuration and size effects on the stress distribution in thick-walled cylinders[J]. International Journal of Pressure Vessels & Piping, 1997.
   連結：
5. Comlekci T, D Mackenzie, Hamilton R, et al. Elastic Stress Concentration At Radial Crossholes In Pressurized Thick Cylinders[J]. Journal of Strain Analysis for Engineering Design, 2007, 42(6):p.461- 468.
   連結：
6. Badr E A. Stress concentration factors for pressurized elliptic crossbores in blocks[J]. International Journal of Pressure Vessels & Piping, 2006, 83(6):442-446.
   連結：
7. Kiani M, Ishak J, Keller M W, et al. Comparison between nonlinear FEA and notch strain analysis for modeling elastoplastic stress-strain response in crossbores[J]. International Journal of Mechanical Sciences, 2016, 118:45-54.
   連結：
8. Zhao Zai Li Research on structural analysis and safety evaluation of pressure vessels [D] Wuhan University of technology, 2006.
9. Huang Xiaoguang, Han Zhongying Finite element contact analysis of pressure vessel based on ABAQUS [J] Petrochemical equipment, 2011, 40 (2): 5.
10. Luan Chunyuan ANSYS analysis and strength calculation of pressure vessel [M] China water resources and Hydropower Press, 2013.
11. Tang Haifeng, Huang Qin, Ding Yi, et al Stress analysis of pressure vessel based on ANSYS [J] Manufacturing automation, 2013, 35 (008): 1-2,5.
12. CA Adenya. Stress Characterization in Thick Walled Cylinders with Elliptical Cross-Bores[J]. Abstracts of Postgraduate Thesis, 2013.
13. JB4732-95. Steel pressure vessels - analytical design criteria.