Directional magnetic Barkhausen noise measurement using the magnetic needle probe method

被引:13
|
作者
Ducharne, B. [1 ,2 ]
Deffo, Y. A. Tene [1 ,3 ]
Tsafack, P. [3 ]
Kouakeuo, S. H. Nguedjang [1 ,3 ,4 ]
机构
[1] Univ Lyon, Lab Genie Elect & Ferroelect, F-69100 Villeurbanne, France
[2] Tohoku Univ, Int Joint Unit, CNRS Univ Lyon Tohoku Univ, ELyTMaX UMI 3757, Sendai, Miyagi, Japan
[3] Univ Buea, Fac Engn & Technol, Buea, Cameroon
[4] Univ Lyon, Lab Ampere, F-69621 Villeurbanne, France
关键词
Barkhausen noise; Directional magnetic measurement; Magnetic needle probe method; EASY-AXIS; INCREMENTAL PERMEABILITY; NUMERICAL-SIMULATION; FLUX; HYSTERESIS; IDENTIFICATION; COIL;
D O I
10.1016/j.jmmm.2020.167453
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
A directional local magnetic measurement technique as example of measuring the angular dependence of the magnetic Barkhausen noise in electrical and construction steels at typical quasi-static frequency by the magnetic needle probe (MNP) method is presented. The directional measurement configuration of the MNP method is typical of a half-turn search coil sensor coupled to high gain analogue amplification and high order filtration stages, owing to its very weak induced electromotive force. The method exploits the MBNenergy(H) hysteresis cycle (time integration of the square of the MBN voltage signal as a function of the tangent excitation field H) and brings forth stable indicators possibly related to the Magnetocrystalline Anisotropy Energy (MAE). Experimental tests performed on grain-oriented Fe-Si and low carbon steel specimens, and comparison with the conventional search coil measurement results were worth the validation of the MNP method. These results put to the front the good directional selectivity of the MNP method over the conventional MBN sensors adversely affected by the transverse fields at the material surface. Eventually, the printed magnetic needle probe (PMNP) sensor was relatedly described to provide non-invasive directional measurements for continuous structural health monitoring.
引用
收藏
页数:10
相关论文
共 50 条
  • [41] Barkhausen noise and size effects in magnetic microstructures
    Callegaro, L
    Puppin, E
    Ricci, S
    JOURNAL OF APPLIED PHYSICS, 2001, 90 (05) : 2416 - 2421
  • [42] Plastic deformation effects on magnetic Barkhausen noise
    Stefanita, CG
    Clapham, L
    Atherton, DL
    REVIEW OF PROGRESS IN QUANTITATIVE NONDESTRUCTIVE EVALUATION, VOLS 19A AND 19B, 2000, 509 : 1541 - 1548
  • [43] Magnetic Barkhausen Noise in quenched carburized steels
    de Campos, M. F.
    Franco, F. A.
    Santos, R.
    da Silva, F. S.
    Ribeiro, S. B.
    Lins, J. F. C.
    Padovese, L. R.
    JOINT EUROPEAN MAGNETIC SYMPOSIA (JEMS), 2011, 303
  • [44] Analog of the induction law for the magnetic Barkhausen noise
    Stupakov, Alexandr
    Perevertov, Alexej
    JOURNAL OF MAGNETISM AND MAGNETIC MATERIALS, 2020, 498
  • [45] INFLUENCE OF MAGNETIZING PARAMETERS ON THE MAGNETIC BARKHAUSEN NOISE
    DHAR, A
    ATHERTON, DL
    IEEE TRANSACTIONS ON MAGNETICS, 1992, 28 (06) : 3363 - 3366
  • [46] Barkhausen noise and size effects in magnetic microstructures
    1600, American Institute of Physics Inc. (90):
  • [47] Direct observation of magnetic Barkhausen noise around grain boundaries with high-spatial-resolution magnetic Barkhausen noise sensor
    Qiang, Zhipeng
    Peng, Li
    Wu, Bin
    Wang, Nan
    Wang, Yujue
    Li, Guangyong
    Liu, Xiucheng
    MEASUREMENT SCIENCE AND TECHNOLOGY, 2025, 36 (02)
  • [48] Characterization of Ground Steel Using Nondestructive Magnetic Barkhausen Noise Technique
    Ashish Srivastava
    Akash Awale
    Meghanshu Vashista
    M. Z. Khan Yusufzai
    Journal of Materials Engineering and Performance, 2020, 29 : 4617 - 4625
  • [49] Fatigue State Evaluation of Ferromagnetic Material Using Magnetic Barkhausen Noise
    Shen, Gongtian
    Zheng, Yang
    Zhang, Junjiao
    ELECTROMAGNETIC NONDESTRUCTIVE EVALUATION (XVIII), 2015, 40 : 76 - 84
  • [50] Stress state determination in boat welding using Magnetic Barkhausen Noise
    Hliadi, Kaliopi
    MATERIALS AND APPLICATIONS FOR SENSORS AND TRANSDUCERS III, 2014, 605 : 633 - 636