Influencing the residual stresses in tubes drawn with a floating plug by changing tool parameters

被引:3
作者
Gattmah, Jabbar [1 ]
Ozturk, Fahrettin [2 ,3 ]
Shihab, Suha K. [1 ]
Orhan, Sadettin [2 ]
机构
[1] Univ Diyala, Dept Mat Engn, Coll Engn, Diyala 32001, Iraq
[2] Ankara Yildirim Beyazit Univ, Dept Mech Engn, TR-06010 Ankara, Turkey
[3] Turkish Aerosp Ind Inc, TR-06980 Kazan, Turkey
关键词
Induced residual stresses (IRS); Floating plug drawing (FPD); Cutting method (CM); Strain gage (SG); Finite element method (FEM); COLD; SIMULATION; MODEL;
D O I
10.1007/s40430-022-03609-5
中图分类号
TH [机械、仪表工业];
学科分类号
0802 ;
摘要
Induced residual stresses (IRS) within tube wall produced by a floating plug drawing (FPD) is one of the vital material defects in tube drawing. Therefore, the measurements of these stresses and their correlation with manufacturing parameters are quite important in the design of the drawing tools. In the present work, DIN 17,100 St 37-2 steel tubes are pulled using the FPD process, then longitudinal and circumferential residual stresses are evaluated by the cutting method (CM). The finite element method (FEM) is also used to estimate the residual stresses in the FPD process. The influences of various tool parameters such as plug half angle, cone half angle of the die, fillet radius of the plug, and fillet radius of the die on the IRS are investigated using FEM. The results of IRS showed a good convergence between the CM and the FEM with slight differences in the values. On the other hand, the FEM results revealed that the plug half angle at 0 degrees and the cone half angle of the die at 9 degrees induce the minimum residual stresses compared to other angles. Further, the observation proposed that the fillet radius of the plug in the range of 0-10 mm with the fillet radius of the die in the range of 7.5-10 mm generates the compressive residual stresses which may prevent crack propagation in the tube wall.
引用
收藏
页数:14
相关论文
共 30 条
[1]  
Abdi A, 2018, USDA FOREIGN AGR REP, P1
[2]  
[Anonymous], 2006, DISSERTATION
[3]  
AZO materials, 2002, TUNGST CARB SID AN O
[4]   Numerical simulation of cold drawing of steel tubes with straight internal rifling [J].
Bella, Peter ;
Durcik, Roman ;
Ridzon, Martin ;
Parilak, Ludovit .
PROCEEDINGS OF THE 17TH INTERNATIONAL CONFERENCE ON METAL FORMING METAL FORMING 2018, 2018, 15 :320-326
[5]   Finite element modelling of cold drawing for high-precision tubes [J].
Boutenel, Florian ;
Delhomme, Myriam ;
Velay, Vincent ;
Boman, Romain .
COMPTES RENDUS MECANIQUE, 2018, 346 (08) :665-677
[6]  
Bramley AN., 1976, MET TECHNOL, V3, P322, DOI [10.1179/030716976803392277, DOI 10.1179/030716976803392277]
[7]   Miniaturized tube fixed plug drawing: Determination of the friction coefficients and drawing limit of 316 LVM stainless steel [J].
Chobaut, N. ;
Drezet, J-M ;
Mischler, S. ;
Nguyen, V ;
De Marco, B. ;
Dobler, S. ;
Rosset, E. .
JOURNAL OF MATERIALS PROCESSING TECHNOLOGY, 2019, 263 :396-407
[8]   The effect of residual stress on the stability of a circular cylindrical tube [J].
Dorfmann, Luis ;
Ogden, Ray W. .
JOURNAL OF ENGINEERING MATHEMATICS, 2021, 127 (01)
[9]   Experimental Assessment of Friction Coefficient in Deep Drawing and Its Verification by Numerical Simulation [J].
Evin, Emil ;
Daneshjo, Naqib ;
Mares, Albert ;
Tomas, Miroslav ;
Petrovcikova, Katarina .
APPLIED SCIENCES-BASEL, 2021, 11 (06)
[10]   Integrated computational material engineering model development for tube drawing process [J].
Foadian, Farzad ;
Carrado, Adele ;
Brokmeier, Heinz Guenther ;
Palkowski, Heinz .
PROCEEDINGS OF THE 17TH INTERNATIONAL CONFERENCE ON METAL FORMING METAL FORMING 2018, 2018, 15 :287-293