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Online since: September 2012
Authors: Qian Liu, Hai Ming Wang, Feng Hui Wang
Clamp Equipment Design and Motion Analysis with ANSYS for Large Cylindrical Segment
Fenghui Wang 1, a, Qian Liu 2,b and Haiming Wang 3,c
1, 2School of Mechanical Engineering and Automation, University of Science and Technology Liaoning, Anshan 114051, China
3Anshan Iron and Steel Group Corporation,Anshan,China
av_kjc@163.com, b,ctclan1987@163.com
Keywords: large cylindrical segment, ANSYS, clamp, motion analysis of structure, parallelogram structure
Abstract.
According to the feature of large cylindrical segment, tube-shaped, huge diameter from 3 to 7 meters, a new designing method that slinging cylindrical segment by grasping double hooks was used instead of the friction one to slinging and transport the materials.
Define material type Define Nodes Generate the linkage model based on the nodes In order to build a structure, the Nodes should be concluded and distributed.
[2].State administration of material transportation.
Journal of system simulation Vol.16 No.2 Feb.2004.
According to the feature of large cylindrical segment, tube-shaped, huge diameter from 3 to 7 meters, a new designing method that slinging cylindrical segment by grasping double hooks was used instead of the friction one to slinging and transport the materials.
Define material type Define Nodes Generate the linkage model based on the nodes In order to build a structure, the Nodes should be concluded and distributed.
[2].State administration of material transportation.
Journal of system simulation Vol.16 No.2 Feb.2004.
Online since: October 2013
Authors: Ke Xie, Ling Yun Lang
With the continuous development of science and technology, create ecological living environment embodies the modern characteristic.
Focusing on new materials, new structure system.
Sun, Architectural creation, three trends in contemporary architectural surface, New Building Materials, 1 (2007)
Shi, On exploitation and management of rural Rodina Hotel, Journal of Industrial and Commercial University of Chongqing, 10 (2005).
Focusing on new materials, new structure system.
Sun, Architectural creation, three trends in contemporary architectural surface, New Building Materials, 1 (2007)
Shi, On exploitation and management of rural Rodina Hotel, Journal of Industrial and Commercial University of Chongqing, 10 (2005).
Online since: September 2011
Authors: Hai Zhang, Dong Po Wang, Yang Liu
Numerical Simulation of Welding Distortion under Different Sequences
Yang Liu 1, a, Dong Po Wang 1, b, Hai Zhang 1, c
1School of material science and engineering, Tianjin University, Tianjin Key Laboratory of Advanced Joining Technology, Tianjin, China
aliuyang_223@tju.edu.cn, bwangdp@tju.edu.cn, cazhanghaia2@163.com
Keywords: Welding, Numerical simulation, Welding sequence, Welding distortion
Abstract.
In order to simply the calculation, the material properties were assumed isotropic and all borders of the weld were assumed only transfer heat with air through convection.
The initial temperature was set at room temperature 20 ℃ Thermal elastic-plastic was chosen as the material model, material followed the Von Mises yield condition and the constitutive relation was linear hardening model [3].
Wei: Welding Journal, Vol. 25 (2004) No.2, p. 9.
In order to simply the calculation, the material properties were assumed isotropic and all borders of the weld were assumed only transfer heat with air through convection.
The initial temperature was set at room temperature 20 ℃ Thermal elastic-plastic was chosen as the material model, material followed the Von Mises yield condition and the constitutive relation was linear hardening model [3].
Wei: Welding Journal, Vol. 25 (2004) No.2, p. 9.
Online since: February 2012
Authors: Chun Fei Guo, Min Zhang, Li Jun Wang
Study on the Magnetic Flux Leakage (MFL) for Fillet Weld
Chunfei Guo1a, Lijun Wang1b and Min Zhang1
1School of Material Science and Engineering, Tianjin University, Tianjin Key Laboratory of Advanced Joining Technology Engineering, Tianjin, 300072, China
aguochunfei@gmail.com, bwanglijun@tju.edu.cn
Keywords: Magnetic flux leakage, Fillet weld, Yoke-testing, ANSOFT
Abstract: The magnetic flux leakage (MFL) technique is widely used as a Non-Destructive Testing (NDT) method for welds [1].
The field equations are supplemented by constitutive relationship which describes the behavior of electromagnetic materials.
References [1] Huang Zuoying, Que Peiwen, Chen Liang, 3D FEM analysis in magnetic flux leakage method, NDT&E International 2006;39;61-66 [2] F.I Al-Naemi, J.P.Hall, A.J.Moses, FEM modeling techniques of magnetic flux leakage-type NDT for ferromagnetic plate inspections, Journal of Magnetic Material, 2006;304;790-793 [3] M.Katoh, K.Nishio, T.Yamaguchi, FEM study on the influence of air gap and specimen thickness on the detestability of flaw in the yoke method, NDT&E International 2000;33;333-339 [4] Mitsuaki Katoh, Modeling of the yoke-magnetization in MFL-testing by finite elements, NDT&E International 2003;36;479-486 [5] M.Katoh, K.Nishio, The influence of modeled B-H curve on the density of the magnetic leakage flux due to a flaw using yoke-magnetization, NDT&E International 2004;32;603-609
The field equations are supplemented by constitutive relationship which describes the behavior of electromagnetic materials.
References [1] Huang Zuoying, Que Peiwen, Chen Liang, 3D FEM analysis in magnetic flux leakage method, NDT&E International 2006;39;61-66 [2] F.I Al-Naemi, J.P.Hall, A.J.Moses, FEM modeling techniques of magnetic flux leakage-type NDT for ferromagnetic plate inspections, Journal of Magnetic Material, 2006;304;790-793 [3] M.Katoh, K.Nishio, T.Yamaguchi, FEM study on the influence of air gap and specimen thickness on the detestability of flaw in the yoke method, NDT&E International 2000;33;333-339 [4] Mitsuaki Katoh, Modeling of the yoke-magnetization in MFL-testing by finite elements, NDT&E International 2003;36;479-486 [5] M.Katoh, K.Nishio, The influence of modeled B-H curve on the density of the magnetic leakage flux due to a flaw using yoke-magnetization, NDT&E International 2004;32;603-609
Online since: November 2011
Authors: Dennis Cheng, Dixon Fung, Karl Guttag
., Hong Kong Science Park, Shatin, Hong Kong
2Syndiant Inc., Dallas, Texas, USA
adcheng@syndiant.com; bdfung@syndiant.com; ckguttag@syndiant.com
Keywords: Liquid crystal on silicon; LCOS; Lasers; High resolution; Pico-projectors.
For example, since it is a reflective display then light travels through the material twice, which allows much thinner cell gaps.
In addition, the smaller pixel gaps between pixels, as shown in LCOS panel performance will benefit from improvements in liquid crystal material characteristics.
LCOS microdisplays have a strong foundation from many decades of liquid crystal material development and will continue to improve with new developments in material properties.
Someya: Journal of the Society for Information Display Vol. 17 (2009), p. 875.
For example, since it is a reflective display then light travels through the material twice, which allows much thinner cell gaps.
In addition, the smaller pixel gaps between pixels, as shown in LCOS panel performance will benefit from improvements in liquid crystal material characteristics.
LCOS microdisplays have a strong foundation from many decades of liquid crystal material development and will continue to improve with new developments in material properties.
Someya: Journal of the Society for Information Display Vol. 17 (2009), p. 875.
Online since: June 2010
Authors: Zhi Jie Jiao, Jian Ping Li, Jie Sun
However, for some experimental cases, such as rolling of
newly developed materials, coil is not available. (2) A complicated tension control system is needed.
Table 2 Austenitic stainless steel 304 rolling process actual data Mill Information: Work roll diameter[mm] Backup roll diameter[mm] 149.0 550.0 PDI Information: ID Steel grade Material Size[mm] Production size[mm] Thickness Width Length Thickness Width Length 1100000012 304 3.000 250.00 300.00 1.352 250.00 665.7 Pass actual data: Pass Number [-] Roll gap [mm] Rolling force [kN] Entry thickness [mm] Exit thickness [mm] Reduction [%] Entry Tension [kN] Exit Tension [kN] Rolling speed [m/s] Motor power [kW] 1 2.653 930.42 3.000 2.656 11.465 48.80 42.52 0.093 7.209 2 2.443 943.58 2.656 2.501 5.835 53.50 30.52 -0.108 2.360 3 2.353 945.27 2.501 2.383 4.721 49.09 42.92 0.112 4.692 4 2.208 973.08 2.383 2.285 4.099 53.44 30.83 -0.110 1.664 5 2.168 949.78 2.285 2.205 3.506 49.07 42.94 0.102 3.931 6 2.064 964.53 2.205 2.149 2.567 53.36 30.51 -0.092 0.593 …… 33 1.089 1203.27 1.363
1.352 0.822 79.52 80.41 0.103 2.554 Table 3 TRIP steel rolling process actual data Mill Information: Work roll diameter[mm] Backup roll diameter[mm] 200.0 550.0 PDI Information: ID Steel grade Material Size[mm] Production size[mm] Thickness Width Length Thickness Width Length 090617-TRIP2 TRIP 5.350 150.00 775.00 1.878 150.00 2208.2 Pass actual data: Pass Number [-] Roll gap [mm] Rolling force [kN] Entry thickness [mm] Exit thickness [mm] Reduction [%] Entry Tension [kN] Exit Tension [kN] Rolling speed [m/s] Motor power [kW] 1 3.96 1385.6 5.350 4.589 14.23 103.28 97.83 0.037 4.813 2 3.30 1391.5 4.589 3.999 12.86 117.70 94.31 -0.037 5.245 3 2.78 1406.8 3.999 3.494 12.63 99.58 95.35 0.036 3.867 4 2.22 1447.0 3.494 3.035 13.14 117.86 93.93 -0.036 4.898 5 1.84 1464.5 3.035 2.678 11.73 92.95 84.25 0.036 3.462 6 1.41 1512.1 2.678 2.375 11.33 95.42 75.34 -0.037 3.849 7 1.08 1581.1 2.375
Chen: Journal of Northeastern University (Natural Science) Vol.25 (2004), p. 412.
Table 2 Austenitic stainless steel 304 rolling process actual data Mill Information: Work roll diameter[mm] Backup roll diameter[mm] 149.0 550.0 PDI Information: ID Steel grade Material Size[mm] Production size[mm] Thickness Width Length Thickness Width Length 1100000012 304 3.000 250.00 300.00 1.352 250.00 665.7 Pass actual data: Pass Number [-] Roll gap [mm] Rolling force [kN] Entry thickness [mm] Exit thickness [mm] Reduction [%] Entry Tension [kN] Exit Tension [kN] Rolling speed [m/s] Motor power [kW] 1 2.653 930.42 3.000 2.656 11.465 48.80 42.52 0.093 7.209 2 2.443 943.58 2.656 2.501 5.835 53.50 30.52 -0.108 2.360 3 2.353 945.27 2.501 2.383 4.721 49.09 42.92 0.112 4.692 4 2.208 973.08 2.383 2.285 4.099 53.44 30.83 -0.110 1.664 5 2.168 949.78 2.285 2.205 3.506 49.07 42.94 0.102 3.931 6 2.064 964.53 2.205 2.149 2.567 53.36 30.51 -0.092 0.593 …… 33 1.089 1203.27 1.363
1.352 0.822 79.52 80.41 0.103 2.554 Table 3 TRIP steel rolling process actual data Mill Information: Work roll diameter[mm] Backup roll diameter[mm] 200.0 550.0 PDI Information: ID Steel grade Material Size[mm] Production size[mm] Thickness Width Length Thickness Width Length 090617-TRIP2 TRIP 5.350 150.00 775.00 1.878 150.00 2208.2 Pass actual data: Pass Number [-] Roll gap [mm] Rolling force [kN] Entry thickness [mm] Exit thickness [mm] Reduction [%] Entry Tension [kN] Exit Tension [kN] Rolling speed [m/s] Motor power [kW] 1 3.96 1385.6 5.350 4.589 14.23 103.28 97.83 0.037 4.813 2 3.30 1391.5 4.589 3.999 12.86 117.70 94.31 -0.037 5.245 3 2.78 1406.8 3.999 3.494 12.63 99.58 95.35 0.036 3.867 4 2.22 1447.0 3.494 3.035 13.14 117.86 93.93 -0.036 4.898 5 1.84 1464.5 3.035 2.678 11.73 92.95 84.25 0.036 3.462 6 1.41 1512.1 2.678 2.375 11.33 95.42 75.34 -0.037 3.849 7 1.08 1581.1 2.375
Chen: Journal of Northeastern University (Natural Science) Vol.25 (2004), p. 412.
Online since: October 2011
Authors: Dan Jiang, Ping Yang, Kun Jiang
2-D Magnetic Field Analysis of Air Cylinder with MR Sensor
Dan Jianga, Ping Yangb, Kun Jiangc
School of Mechatronics Engineering, University of Electronic Science and Technology of China, Chengdu 611731, China
ajdan2002@uestc.edu.cn, bping@uestc.edu.cn, cjiangkun880810@126.com
Keywords: Air cylinder, MR sensor, Magnetic field, Finite element analysis.
The components material and parameters of air cylinder are listed in Table 1.
Table 1 Components material and parameters Components Material Relative permeability Coercivity [Oe] Piston Aluminum alloy 1 - Cylinder tube Aluminum alloy 1 - Built-in magnet Plastic magnet 200 1400 Piston rod Carbon steel 1000 - Cushion ring Brass 1 - Depending upon these parameters and material of the components, the magnetic field distribution of the air cylinder with piston motion is analyzed.
Koymen: IEEE Sensors Journal Vol. 5 (2005), p. 1258 [2] A.
The components material and parameters of air cylinder are listed in Table 1.
Table 1 Components material and parameters Components Material Relative permeability Coercivity [Oe] Piston Aluminum alloy 1 - Cylinder tube Aluminum alloy 1 - Built-in magnet Plastic magnet 200 1400 Piston rod Carbon steel 1000 - Cushion ring Brass 1 - Depending upon these parameters and material of the components, the magnetic field distribution of the air cylinder with piston motion is analyzed.
Koymen: IEEE Sensors Journal Vol. 5 (2005), p. 1258 [2] A.
Online since: July 2014
Authors: Jin Fa Xie, Yan Qiang Cheng
A kind of swinging bumper in the rear of a truck and its performance research
Jinfa Xie1,a, Yanqiang Cheng1,b
1Henan university of science and technology, Luoyang, China, 471003
ajfxie821@163.com, bcyqzpp@yeah.net
Keywords:truck; protective device; the swinging; welding; bolted connection
Abstract: Using three-dimensional modeling software to design a kind of swinging rear underrun protective device, using the Ansys finite element analysis software, in accordance with the provisions of GB11567.2-2001, the rear underrun protective device applied static load analysis.
The material of the latest rear guard device is carbon structural steel.
Tab.1 The basic material properties of the protective frame material Modulus N/m2 Poisson ratio Density Kg/m3 Shear modulus N/m2 Tensile strength N/m2 Yield strength N/m2 NO. 45 steel 2.09×1011 0.3 7.89×103 8.23×1010 6.0×108 3.55×108 Fig.1 The swinging bumper in the rear of a truck Establishing the finite element model of the swinging protective device GB11567.2-2001 provisions the protective device has the blocking capability in rear end collision between car and truck.
Improvement and Simulation of the Bumper in the Rear of a Truck[J].JOURNAL OF XIHUA UNIVERSITY (NATURAL SCIENCE EDITION),2007,26(3):27-30.
The material of the latest rear guard device is carbon structural steel.
Tab.1 The basic material properties of the protective frame material Modulus N/m2 Poisson ratio Density Kg/m3 Shear modulus N/m2 Tensile strength N/m2 Yield strength N/m2 NO. 45 steel 2.09×1011 0.3 7.89×103 8.23×1010 6.0×108 3.55×108 Fig.1 The swinging bumper in the rear of a truck Establishing the finite element model of the swinging protective device GB11567.2-2001 provisions the protective device has the blocking capability in rear end collision between car and truck.
Improvement and Simulation of the Bumper in the Rear of a Truck[J].JOURNAL OF XIHUA UNIVERSITY (NATURAL SCIENCE EDITION),2007,26(3):27-30.
Online since: March 2015
Authors: Cong Li
For the experiment, material testing system (MTS) was employed as the loading equipment.
Acknowledgements This work was financially supported by the Science and Technology Project of Western Traffic Construction (2008 318 740 54 and 2009 318 740 99) and the Chongqing Natural Science Foundation (cstc2012jjA30008).
JOURNAL OF SHANGHAI JIAOTONG UNIVERSITY, 2011, Vol. 45(Sup.): 62-66 (In Chinese) [3] Ling Yao, Hongduo Zhao, Zhanyu Dong, Yuanfa Gao.
Key Engineering materials, 2011, Vol. 492: 172-175 [4] Tao yujie, Zhao Hongduo.
Acknowledgements This work was financially supported by the Science and Technology Project of Western Traffic Construction (2008 318 740 54 and 2009 318 740 99) and the Chongqing Natural Science Foundation (cstc2012jjA30008).
JOURNAL OF SHANGHAI JIAOTONG UNIVERSITY, 2011, Vol. 45(Sup.): 62-66 (In Chinese) [3] Ling Yao, Hongduo Zhao, Zhanyu Dong, Yuanfa Gao.
Key Engineering materials, 2011, Vol. 492: 172-175 [4] Tao yujie, Zhao Hongduo.
Online since: July 2013
Authors: Huan Li, Ying Gao, Xiao Yan Gu
Experimental
The experimental material is the Mg alloy AZ31 which is alloyed by the element Al and the elements Zinc (Zn) .
Materials Science and Engineering: A Vol.505,(2009),p6-12
Journal of Physics D: Applied Physics (2008),41(13),p1-8
Plasma Science and Technology (2011),13(2),p3887-3897
Materials Science and Engineering: A Vol.505,(2009),p6-12
Journal of Physics D: Applied Physics (2008),41(13),p1-8
Plasma Science and Technology (2011),13(2),p3887-3897