The effect of creep on magnetic domain structure of heat resistant steels

被引:1
|
作者
Zhang, S. Z. [1 ]
Tu, S. T. [1 ]
机构
[1] E China Univ Sci & Technol, MOE Key Lab Pressure Syst & Safety, Sch Mech & Power Engn, Shanghai 200237, Peoples R China
关键词
Creep; Carbides; Coercivity; Magnetic domains; BARKHAUSEN NOISE; HYSTERESIS; BEHAVIOR; TEMPERATURE; PARAMETERS; PROPERTY;
D O I
10.1117/12.2011998
中图分类号
V [航空、航天];
学科分类号
08 ; 0825 ;
摘要
The magnetic domain and magnetic properties of heat resistant steels including 10CrMo910, P91 and 23CrMoNiWV88 are investigated in the present work. The magnetic properties characterized by magnetic hysteresis loop of the three materials under 500-600 degrees C are measured by vibrating sample magnetometer (VSM). The magnetic domain structure of as-received and crept specimens is observed by magnetic force microscope (MFM). The magnetic domain of ferrite phase change from initial stripe pattern to maze pattern during creep. The black and white fringes and stripe-like pattern have also been found in the P91 and 23CrMoNiWV88 specimens, respectively. The experimental results reveal that the magnetic domain structure is strongly influenced by microstructures with different distributions of the carbides. It is shown that the coercivity and remanence of each material although has a remarkable decrease at 500-600 degrees C especially for P91 almost 64% decrease, it's still the same magnitude as the one at room temperature. All the short-term crept specimens with different creep damage have a linear increase in coercivity and remanence comparing to the as-received 10CrMo910 specimens. These results indicate that it should be possible to develop an in-situ monitoring technology for creep damage based on magnetism measurement.
引用
收藏
页数:8
相关论文
共 50 条
  • [21] CREEP OF HEAT-RESISTANT STEELS UNDER DIFFERENT TEMPERATURE AND FORCE CONDITIONS
    BEREZINA, TG
    TRUNIN, II
    ERAGER, SI
    STRENGTH OF MATERIALS, 1981, 13 (03) : 309 - 314
  • [23] Creep strengthening mechanism of Mo and W in 9% Cr heat resistant steels
    Muraki, T
    Hasegawa, Y
    Ohgami, M
    CREEP AND FRACTURE OF ENGINEERING MATERIALS AND STRUCTURES, 2000, 171-1 : 499 - 504
  • [24] Creep Life Predictions by Machine Learning Methods for Ferritic Heat Resistant Steels
    Sakurai, Junya
    Demura, Masahiko
    Inoue, Junya
    Yamazaki, Masayoshi
    ISIJ INTERNATIONAL, 2023, 63 (10) : 1786 - 1797
  • [25] Cast Steels for Creep-Resistant Parts Used in Heat Treatment Plants
    Drotlew, A.
    Garbiak, M.
    Piekarski, B.
    ARCHIVES OF FOUNDRY ENGINEERING, 2012, 12 (04) : 31 - 38
  • [26] Investigation of Regularities of Failure Development Under Creep of Heat Resistant Steels.
    Berezina, T.G.
    Problemy Prochnosti, 1985, (08): : 48 - 52
  • [27] Creep-damage assessment of high chromium heat resistant steels and weldments
    Fujiyama, Kazunari
    Mori, Keita
    Matsunaga, Takahide
    Kimachi, Hirohisa
    Saito, Takashi
    Hino, Takehisa
    Ishii, Ryuichi
    MATERIALS SCIENCE AND ENGINEERING A-STRUCTURAL MATERIALS PROPERTIES MICROSTRUCTURE AND PROCESSING, 2009, 510-11 : 195 - 201
  • [28] STRUCTURE AND PROPERTIES OF HEAT-RESISTANT MARAGING STEELS
    BITYUKOV, SM
    GRACHEV, SV
    ZVIGINTSEV, NV
    LISIN, VN
    RUNDKVIST, NA
    CHERVINSKII, VF
    STEEL IN THE USSR, 1982, 12 (06): : 277 - 279
  • [29] CREEP RESISTANCE OF MICROSTRUCTURE OF WELDS OF CREEP RESISTANT STEELS
    Vodopivec, Franc
    Jenko, Monika
    Celin, Roman
    Zuzek, Borut
    Skobir, Danijela A.
    MATERIALI IN TEHNOLOGIJE, 2011, 45 (02): : 139 - 143
  • [30] Creep rupture ductility of ferritic creep resistant steels
    Kimura, K.
    Sawada, K.
    MATERIALS AT HIGH TEMPERATURES, 2022, 39 (06) : 538 - 548