Now accepting submissions for the upcoming volume
Electronic and Acoustic Engineering
ISSN 2524-2725 · e‑ISSN 2617-0965 Open Access · CC BY-NC 4.0
Vol. 3 · Issue 4 · 2020 Dec 30, 2020 Microsystems and Physical Electronics

Modeling in Software Environments  for the Study of the Physical Properties  of Ferromagnets

OS
Oleksandr Viktorovych Shtykalo Corresponding National Technical University of Ukraine “Igor Sikorsky Kyiv Polytechnic Institute” astrosasha013@gmail.com Ukraine
LS
Liudmyla Mykolaivna Shmyrova National Technical University of Ukraine “Igor Sikorsky Kyiv Polytechnic Institute” Ukraine
OS
Oleksandr Borysovych Sidniev V. E. Lashkaryov Institute of Semiconductor Physics NAS of Ukraine Ukraine
TS
Tetiana Viktorivna Semikina V. E. Lashkaryov Institute of Semiconductor Physics NAS of Ukraine Ukraine
Pages14-19 PublishedDec 30, 2020 LicenseOpen Access
EAE 4 VOL 3 · 4
VOL 3 · NO 4 · 2020 View issue

Abstract

The work is devoted to the study of the properties of ferromagnets in different software environment. The use of magnetic properties of substances is based on whole sections of technology, such as magnetic recording of sound and images, magnetic flaw detection, magnetic exploration of minerals. There are various types of magnetic materials, among which ferromagnets have the most practical application. They are used as cores in transformers, generators, electric motors and other devices. The study of magnetic properties can be carried out both by hardware methods of direct measurements and by simulation. Traditionally, modeling of properties of both bulk and film structures is performed using statistical Monte Carlo numerical methods. At the moment, it is possible to make correlations between the crystalline structure of a magnetic material, the intensity of a ferromagnet, and the change in magnetic properties, such as the coefficient of magnetic resistance. The presented work demonstrates a method of studying the properties of ferromagnets using simulation in the software environments Proteus Professional Demonstration and MULTISIM TM for EDUCATION. The features of these software environments are analyzed. The simulation is performed by constructing in the software environments a circuit with a transformer and an oscilloscope, which determines the characteristics of hysteresis loops. To study the magnetic properties, we proposed a circuit, which includes resistors R 0 , R 1 , R 2 , capacitor C, ammeter, transformer T, power supply and oscilloscope outputs. The magnetic properties of the ferromagnetic material were investigated by analyzing hysteresis loops in a 500 Hz magnetized field using an electron beam oscilloscope. The studied ferromagnet in the form of a toroid has a magnetizing (primary) and measuring (secondary) windings, the number of turns of which influence on the final results of the shape of hysteresis loop. It is shown how the transformer parameters and circuit components affect the appearance of the hysteresis loop. The characteristics of hysteresis loops and their relationship with the properties of the ferromagnet are analyzed. The paper presents the instruction for hysteresis loops observation on the oscilloscope. Methods of measure ments, equestions, and calculations of magnetic characteristics are presented: coercive force, residual induction, magnetic permeability, magnetization. The features of modeling in each software environment are analyzed. 

Keywords

References

  1. M. Glynchuk, V. Khist, and H. Morozovska, “Vidnovlennia interesu do mahnitoelektrychnoho efektu u nanoferoikakh[Restoration of interest in the magnetoelectric effect in nanoferoics],” Ukr. Phys. J, pp. 26–27, 2018,DOI: 10.15407/ujpe63.11.1006.
  2. I. Savel’ev, Kurs obshhej fiziki, t.2. Jelektrichestvo i magnetizm[General physics course. t.2. Electricity and magnetism. The waves. Optics]. Moscow: Science. The main edition of physical and mathematical literature., 1982, ISBN: 978-5-8114-1208-2, 978-5-8114-1206-8.
  3. V. Prudnikov, P. Prudnikov, V. Borzilov, and I. Sajfutdinov, “Modelirovanie magnitnyh svojstv mul’tislojnyh magnitnyh nanostruktur[Modeling the magnetic properties of multilayer magnetic nanostructures],” Her. Omsk Univ., pp. 25–32, 2019, DOI: 10.25513/1812-3996.2019.24(2).25-32.
  4. V. Prudnikov, P. Prudnikov, and A. Levickij, “Modelirovanie magnitnyh mul’tislojnyh struktur s anizotropnymi gejzenbergovskimi ferromagnitnymi plenkami i raschet dlja nih kojefficienta magnitosoprotivlenija [Simulation of the magnetic properties of multilayer structures with anisotropic Heisenberg fe,” Her. Omsk Univ., pp. 44–47, 2016.
  5. “National Instrumetns.” [Online]. Available: https://www.ni.com/.
  6. “PCB Design and Circuit Simulator Software for modern EDA development.” [Online]. Available: https://www.labcenter.com/.
  7. I. Kucherchuk and I. Horbachuk, Zahalna fizyka. Elektryka i mahnetyzm[General Physics. Electricity and magnetism]. Kyiv: High school, 1990.
  8. S. Kalashnykov, Jelektrichestvo[Electricity]. PHYSMATLITIS, 2003, ISBN: 5-9221-0312-1.
  9. S. Enohovich, Spravochnik po fizike[Physics Reference]. Enlightenment, 1978.
  10. I. Irodov, Osnovnye zakony elektromagnetizma[The basic laws of electromagnetism]. Moscow: High school, 1991.
  11. F. Detlaf, B. Javorskij, and L. Milkovskaja, Kurs fiziki. T. 2. Jelektrichestvo i magnetizm[Physics course. T. 2. Electricity and magnetism]. High school, 1977.
  12. I. Vikulin, B. Korobicyn, and S. Kris’kiv, Fizika jelektroradiomaterialov[Physics of electrical radio materials]. Odessa: Odessa National Academy of Communications, 2010, URL: https://library.kre.dp.ua/Books/2-4 kurs/Електрорадіоматеріали та радіокомпоненти/Калинин ЄРМ Додаткова література/Физика электрорадиоматериалов_учебное пособие для студентов вузов..pdf.

License

CCBY-NC 4.0
Creative Commons Attribution 4.0 International

This work is openly licensed — share and adapt freely with attribution to the authors and the journal. View license terms ↗

§ 06 — Related

Similar articles in this journal

Related peer-reviewed studies published in this journal.
View all issues

Measurement of Piezoelectric Characteristics  of Diode Structures Using the «Obzor-103»  Vector Analyzer

Oleksii Serhiiovych Tsybulskyi, Vladyslav A. Klymenko, Tetiana V. Semikina

The results of the study of semiconductor film heterostructures CdS-Cu2S and CdS-ZnS-Cu2S by the resonance-antiresonance method are presented. The semiconductor…

#amplitude-frequency characteristics #semiconductor films #heterostructures #piezoelectric properties
p. 5-9

Most read articles by the same author(s)

Similar Articles

1-10 of 43

You may also start an advanced similarity search for this article.