SHM-BASED PRACTICAL SAFETY EVALUATION AND VIBRATION CONTROL MODEL FOR STEEL PIPES

被引:3
作者
Bae, Sang Geun [1 ]
Choi, Jewoo [1 ]
Kang, Deok Shin [2 ]
Hong, Taehoon [1 ]
Lee, Dong-Eun [3 ]
Park, Hyo Seon [1 ]
机构
[1] Yonsei Univ, Dept Architectural Engn, Seoul, South Korea
[2] Hyundai Engn & Construct, Seoul, South Korea
[3] Kyungpook Natl Univ, Sch Architecture Civil Engn Environm & Energy, Daegu, South Korea
基金
新加坡国家研究基金会;
关键词
monitoring system; measurement; steel pipe; oil refinery; FINITE-ELEMENT-METHOD; MODAL IDENTIFICATION; DAMAGE DETECTION; OIL; PERFORMANCE;
D O I
10.3846/jcem.2023.20146
中图分类号
TU [建筑科学];
学科分类号
0813 ;
摘要
Unexpected damages or failures of steel pipes in refineries cause significant disruption to economic activity. While research has been conducted on the prevention of damage to steel pipes, no systematic methods or practical techniques for monitoring of vibrations to estimate the state of pipeline system have been reported. In this study, vibration safety evaluation model consisting of design - evaluation - control steps was developed to measure and control the vibration level during operation of the piping system of an oil refinery. The measurement location was designed by examining the structure of the pipe, and the vibration level measured at each location was compared with the allowable vibration level. Subsequently, two types of vibration reduction measures, namely, dynamic absorbers and viscous dampers, were introduced to reduce the vibration level. The effect of the application of the monitoring system was evaluated by comparing the vibration levels of the steel pipes before and after the application of the dynamic absorbers and viscous dampers. The vibrations of steel pipes in the oil refinery during operation decreased by over 50%. Upon applying the dynamic absorbers and viscous dampers, the responses of the frequency component also exhibited local and global reductions of approximately 50-80%.
引用
收藏
页码:729 / 740
页数:12
相关论文
共 47 条
[1]   Detection of Cavitation Phenomenon within a Centrifugal Pump Based on Vibration Analysis Technique in both Time and Frequency Domains [J].
Al-Obaidi, Ahmed Ramadhan .
EXPERIMENTAL TECHNIQUES, 2020, 44 (03) :329-347
[2]  
American Society of Mechanical Engineers, 2010, Boiler & pressure vessel code section III, division 1: Mandatory appendix I
[3]  
American Society of Mechanical Engineers, 2012, Operation and maintenance of nuclear power plants, Division 2: OM standards contents-Part 3: Vibration testing of piping systems. Nonmandatory appendix D, velocity criterion
[4]  
American Society of Mechanical Engineers, 2001, Requirements for preoperational and initial start-up vibration testing of nuclear power plant piping systems (ASME OM3)
[5]   Signal Processing Techniques for Vibration-Based Health Monitoring of Smart Structures [J].
Amezquita-Sanchez, Juan Pablo ;
Adeli, Hojjat .
ARCHIVES OF COMPUTATIONAL METHODS IN ENGINEERING, 2016, 23 (01) :1-15
[6]   DYNAMIC STABILITY OF PIPES CONVEYING PULSATING FLUID [J].
ARIARATNAM, ST ;
NAMACHCHIVAYA, NS .
JOURNAL OF SOUND AND VIBRATION, 1986, 107 (02) :215-230
[7]   Vibration Analysis of a Roller Bearing Condition Used in a Tangential Threshing Drum of a Combine Harvester for the Smooth and Continuous Performance of Agricultural Crop Harvesting [J].
Bhandari, Shankar ;
Jotautiene, Egle .
AGRICULTURE-BASEL, 2022, 12 (11)
[8]   Seismic Performance of Storage Steel Tanks during the May 2012 Emilia, Italy, Earthquakes [J].
Brunesi, Emanuele ;
Nascimbene, Roberto ;
Pagani, Marco ;
Beilic, Dumitru .
JOURNAL OF PERFORMANCE OF CONSTRUCTED FACILITIES, 2015, 29 (05)
[9]  
Chock G., 2006, PRELIMINARY OBSERVAT
[10]   Detection of cavitation in hydraulic turbines [J].
Escaler, X ;
Egusquiza, E ;
Farhat, M ;
Avellan, F ;
Coussirat, M .
MECHANICAL SYSTEMS AND SIGNAL PROCESSING, 2006, 20 (04) :983-1007