Test and Analysis of High-Permeability Material's Microstructure in Magnetic Shielding Device

被引:0
作者
Zhou, Weiyong [1 ,2 ,3 ]
Sun, Jinji [1 ,2 ,3 ,4 ]
Han, Bangcheng [1 ,2 ,3 ,4 ]
Ren, Jianyi [1 ]
Li, Yifei [5 ]
机构
[1] Beihang Univ, Sch Instrumentat & Optoelect Engn, Beijing 100191, Peoples R China
[2] Beihang Univ, Hangzhou Innovat Inst, Hangzhou 310051, Peoples R China
[3] Zhejiang Prov Key Lab Ultraweak Magnet, Field Space & Appl Technol, Hangzhou 310051, Peoples R China
[4] Hefei Natl Lab, Hefei 230088, Peoples R China
[5] Chinese Acad Sci, Ningbo Inst Mat Technol & Engn, Ningbo 315201, Peoples R China
基金
中国国家自然科学基金;
关键词
high-permeability material; microstructure; magnetic shield device; magnetic property; COERCIVITY;
D O I
10.3390/ma16113956
中图分类号
O64 [物理化学(理论化学)、化学物理学];
学科分类号
070304 ; 081704 ;
摘要
The magnetic shielding device is used to provide an extreme weak magnetic field, which plays a key role in variety of fields. Since the high-permeability material constituting the magnetic shielding device determines the magnetic shielding performance, it is important to evaluate the property of the high-permeability material. In this paper, the relationship between the microstructure and the magnetic properties of the high-permeability material is analyzed using minimum free energy principle based on magnetic domain theory, and the test method of the material's microstructure including the material composition, the texture and the grain structure to reflect the magnetic properties is put forward. The test result shows that the grain structure is closely related to the initial permeability and the coercivity, which is highly consistent with the theory. As a result, it provides a more efficient way to evaluate the property of the high-permeability material. The test method proposed in the paper has important significance in the high efficiency sampling inspection of the high-permeability material.
引用
收藏
页数:14
相关论文
共 32 条
[1]  
[Anonymous], 2017, GB/T 6394-2017
[2]   Dosimetry analysis of the magnetic field of underground power cables and magnetic field mitigation using an electromagnetic shielding technique [J].
Ates, Kayhan ;
Carlak, H. Feza ;
Ozen, Sukru .
INTERNATIONAL JOURNAL OF OCCUPATIONAL SAFETY AND ERGONOMICS, 2022, 28 (03) :1672-1682
[3]   Magnetoencephalography for brain electrophysiology and imaging [J].
Baillet, Sylvain .
NATURE NEUROSCIENCE, 2017, 20 (03) :327-339
[4]   The domain formation in Fe/Ni/Fe nanoscale magnetic antidot arrays [J].
Cheng, Ruihua ;
Rosenberg, A. ;
McIlroy, D. N. ;
Holman, Z. ;
Zhang, D. ;
Kranov, Y. .
JOURNAL OF APPLIED PHYSICS, 2012, 111 (06)
[5]   Testing and Analysis Method of Low Remanence Materials for Magnetic Shielding Device [J].
Cheng, Yuan ;
Luo, Yaozhi ;
Shen, Ruihong ;
Kong, Deyu ;
Zhou, Weiyong .
MATERIALS, 2023, 16 (02)
[6]   A Simple Compensation Method for the Accurate Measurement of Magnetic Losses With a Single Strip Tester [J].
de la Barriere, O. ;
Ragusa, C. ;
Khan, M. ;
Appino, C. ;
Fiorillo, F. ;
Mazaleyrat, F. .
IEEE TRANSACTIONS ON MAGNETICS, 2016, 52 (05)
[7]   A High-Performance Magnetic Shield with MnZn Ferrite and Mu-Metal Film Combination for Atomic Sensors [J].
Fang, Xiujie ;
Ma, Danyue ;
Sun, Bowen ;
Xu, Xueping ;
Quan, Wei ;
Xiao, Zhisong ;
Zhai, Yueyang .
MATERIALS, 2022, 15 (19)
[8]   BH hysteresis measurement system for thin soft magnetic materials [J].
Fathabad, Sobhan Mohammadi ;
Shahri, Farzad .
MEASUREMENT, 2021, 172
[9]   Formation and magnetic properties of nanocrystalline 78.5-permalloy by mechanical alloying [J].
Ghosh, N. C. ;
Das, H. N. ;
Gafur, M. A. ;
Hossain, A. K. M. Akther .
10TH INTERNATIONAL CONFERENCE ON MECHANICAL ENGINEERING (ICME 2013), 2014, 90 :136-139
[10]   A high-performance compact magnetic shield for optically pumped magnetometer-based magnetoencephalography [J].
He, Kaiyan ;
Wan, Shuangai ;
Sheng, Jingwei ;
Liu, Dongsu ;
Wang, Chune ;
Li, Dongxu ;
Qin, Lang ;
Luo, Shen ;
Qin, Jie ;
Gao, Jia-Hong .
REVIEW OF SCIENTIFIC INSTRUMENTS, 2019, 90 (06)