Study of Low-Carbon Pipe Steel Strain Ageing

被引:0
作者
I. Yu. Pyshmintsev
M. A. Smirnov
O. V. Varnak
A. N. Mal’tseva
Yu. N. Goikhenberg
机构
[1] Russian Research Institute of the Pipe Industry (RosNITI),
[2] South-Ural State University,undefined
来源
Metallurgist | 2018年 / 61卷
关键词
low-carbon pipe steel; strain aging; ferrite; bainite; mechanical properties; austenitizing temperature; hot plastic deformation;
D O I
暂无
中图分类号
学科分类号
摘要
Strain aging of pipe steels 06G2FB and 07G2MFB with ferrite-pearlite and ferrite-bainite structures is investigated. It is established that a ferrite-bainite structure is more inclined towards strain aging than a ferrite-pearlite structure. The tendency towards strain aging of steel with a ferrite-bainite structure increases with increasing austenitizing temperature. During hot plastic deformation there is development of recrystallization and the tendency towards strain aging decreases.
引用
收藏
页码:1093 / 1101
页数:8
相关论文
共 50 条
[11]   Production of Low-Carbon Steel Sheet for Oil-Industry Pipe [J].
Komissarov A.A. ;
Sokolov P.Y. ;
Tikhonov S.M. ;
Sidorova E.P. ;
Mishnev P.A. ;
Matrosov M.Y. ;
Kuznetsov D.V. .
Steel in Translation, 2018, 48 (11) :748-753
[12]   Long-term strain ageing effects on low-carbon structural steels [J].
Xu, Fei ;
Zhao, Jian ;
Zhou, Xuhong ;
Yun, Xiang ;
Liu, Jun-Zhi ;
Okazaki, Taichiro .
JOURNAL OF CONSTRUCTIONAL STEEL RESEARCH, 2025, 231
[13]   Study of the Dynamic Strain-Induced Transformation Process of a Low-Carbon Steel: Experiment and Finite Element Simulation [J].
He, Lei ;
Ruan, Ruijie ;
Lin, Chen ;
Dai, Ting ;
Hu, Xianjun ;
Krakauer, Bruce W. ;
Zhu, Mingfang .
ADVANCES IN MATERIALS SCIENCE AND ENGINEERING, 2016, 2016
[14]   Effect of Carbon and Manganese on Low-Carbon Pipe Steel Hydrogen-Induced Cracking Resistance [J].
Kholodnyi, A. A. ;
Matrosov, Yu. I. ;
Matrosov, M. Yu. ;
Sosin, S. V. .
METALLURGIST, 2016, 60 (1-2) :54-60
[15]   Structural changes in low-carbon steel due to rolling friction strain [J].
S. V. Davydov ;
V. Ya. Zharkov ;
V. M. Skantsev .
Metal Science and Heat Treatment, 2007, 49 :412-416
[16]   Structural changes in low-carbon steel due to rolling friction strain [J].
Davydov, S. V. ;
Zharkov, V. Ya. ;
Skantsev, V. M. .
METAL SCIENCE AND HEAT TREATMENT, 2007, 49 (7-8) :412-416
[17]   Effect of Carbon and Manganese on Low-Carbon Pipe Steel Hydrogen-Induced Cracking Resistance [J].
A. A. Kholodnyi ;
Yu. I. Matrosov ;
M. Yu. Matrosov ;
S. V. Sosin .
Metallurgist, 2016, 60 :54-60
[18]   Study on the performance and strain aging behavior of solid-solution state low-carbon steel [J].
Yuan, Xiaofeng ;
Li, Weijuan ;
Pang, Qihang ;
Zhang, Chongchong ;
Lu, Guangshen .
MATERIALS SCIENCE AND ENGINEERING A-STRUCTURAL MATERIALS PROPERTIES MICROSTRUCTURE AND PROCESSING, 2018, 726 :282-287
[19]   Texture Inheritance on Phase Transition in Low-Carbon, Low-Alloy Pipe Steel after Thermomechanical Controlled Processing [J].
Lobanov M.L. ;
Borodina M.D. ;
Danilov S.V. ;
Pyshmintsev I.Y. ;
Struin A.O. .
Steel in Translation, 2017, 47 (11) :710-716
[20]   Digital identification scheme for steel microstructures in low-carbon steel [J].
Terasaki, Hidenori ;
Miyahara, Yu ;
Hayashi, Kotaro ;
Moriguchi, Koji ;
Morito, Shigekazu .
MATERIALS CHARACTERIZATION, 2017, 129 :305-312