STRUCTURAL INHOMOGENEITIES IN PLASTICALLY DEFORMED FERRITIC STAINLESS STEEL.

被引:0
|
作者
Dymek, Stanislaw
Blicharski, Marek
机构
来源
| 1600年 / 29期
关键词
METAL FORMING - Cold Working - METALLOGRAPHY - Microstructures;
D O I
暂无
中图分类号
学科分类号
摘要
Structural variations during cold working have been investigated in ferritic stainless steels. It is shown that the structure after deformation depends strongly on the crystallographic orientation of the grains. In grains with LT AN BR 100 RT AN BR 501 TD orientation uniform dislocation distribution was observed. The typical structure of heavily deformed ferrite consists of bands of increased dislocation density usually parallel to left brace 110 right brace , planes, but sometimes to left brace 211 right brace or left brace 321 right brace planes. Frequently, these bands are intersected by microbands. Transition and shear bands have often been observed. Transition bands are the boundaries between two deformation bands. Across a transition band the crystallographic orientation varies continuously from one deformation band to another. Bands of increased dislocation density developed in adjacent deformation bands have different orientations and they interpenetrate each other in the transition bands. No transition bands consisting of long, parallel cells as the generally accepted model of transition band formation demands have been observed.
引用
收藏
相关论文
共 50 条
  • [21] MECHANISM OF RUST CORROSION IN SO2 GAS ON FERRITIC STAINLESS STEEL.
    Yamamoto, Akio
    Boshoku gijutsu, 1987, 36 (02): : 59 - 66
  • [22] ELECTROPOLISHING OF STAINLESS STEEL.
    Anon
    Industrial Finishing (Wheaton, Ill.), 1977, 53 (07): : 36 - 39
  • [23] Scaling analysis of magnetic minor hysteresis loops in plastically deformed 304 stainless steel
    Kobayashi, Satoru
    Kikuchi, Nobuhiro
    Kikuchi, Hiroaki
    Kamada, Yasuhiro
    Echigoya, Junichi
    INTERNATIONAL JOURNAL OF APPLIED ELECTROMAGNETICS AND MECHANICS, 2010, 33 (3-4) : 1119 - 1125
  • [24] EXPANSION COEFFICIENT OF PLASTICALLY DEFORMED STEEL
    HORDON, MJ
    AVERBACH, BL
    ACTA METALLURGICA, 1959, 7 (06): : 426 - 427
  • [25] Ultrasonic cavitation erosion behaviour of plastically deformed textured stainless-steel surface
    Raturi, Amit
    Garg, Mayank
    Grewal, Harpreet S.
    Arora, Harpreet S.
    FRICTION, 2025, 13 (03):
  • [26] Annealing behaviour of plastically deformed stainless steel 1.4307 studied by positron annihilation methods
    Dryzek, Ewa
    Sarnek, Maciej
    Siemek, Krzysztof
    NUKLEONIKA, 2013, 58 (01) : 215 - 219
  • [27] In situ observation of strain and phase transformation in plastically deformed 301 austenitic stainless steel
    Das, Yadunandan B.
    Forsey, Alexander N.
    Simm, Thomas H.
    Perkins, Karen M.
    Fitzpatrick, Michael E.
    Gungor, Salih
    Moat, Richard J.
    MATERIALS & DESIGN, 2016, 112 : 107 - 116
  • [28] FRICTION WELDING OF PLASTICALLY DEFORMED STEEL
    SEREGIN, SA
    SABANTSEV, VP
    WELDING PRODUCTION, 1975, 22 (11): : 34 - 35
  • [29] Scaling Analysis of Magnetic Minor hysteresis Loops in Plastically Deformed 304 Stainless Steel
    Kobayashi, Satoru
    Kikuchi, Nobuhiro
    Kikuchi, Hiroaki
    Kamada, Yasuhiro
    Echigoya, Junichi
    APPLIED ELECTROMAGNETICS AND MECHANICS (II), 2009, 13 : 459 - 460
  • [30] DIMENSIONAL STABILITY OF DEFORMED STEEL.
    Baranov, A.A.
    Alimov, V.I.
    Russian metallurgy. Metally, 1987, (02) : 69 - 70