Results 1 to 10 of about 4,167 (169)

Self similar Barkhausen noise in magnetic domain wall motion [PDF]

Physical Review Letters, 1996
A model for domain wall motion in ferromagnets is analyzed. Long-range magnetic dipolar interactions are shown to give rise to self-similar dynamics when the external magnetic field is increased adiabatically.
B. Alessandro, D. Ertas, G. Durin, J. S. Urbach, K. P. O'Brien, N. Martys, O. Narayan, O. Narayan, Onuttom Narayan, P. Bak, W. Grosse-Nobis   +10 more
core   +4 more sources

Magnetic Barkhausen noise: A simulation tool [PDF]

AIP Advances, 2021
Non-destructive magnetic controls are increasing in the industrial field. In this domain, the expectation for simulation tools able to anticipate the magnetic signature, improve the understanding and avoid fastidious and uncertain experimental pre-characterizations is high.
Fagan, Patrick, Ducharne, Benjamin, Daniel, Laurent, Skarlatos, Anastassios   +3 more
openaire   +4 more sources

Magnetic Barkhausen Noise Measurements on Rocks

Tecnura, 2022
Context: The magnetic properties of rocks may reflect the modal abundance, composition, and microstructure of the magnetic grains contained within them, usually in a very small proportion. Magnetic Barkhausen Noise (MBN) is a non-destructive technique applied to magnetic materials, and it is very sensitive to microstructure and residual stresses.
Miriam Rocío Neyra Astudillo, María Isabel López-Pumarega, Silvana Evangelina-Geuna, Martin Gómez   +3 more
openaire   +4 more sources

Barkhausen noise emission in soft magnetic bilayer ribbons [PDF]

AIP Advances, 2021
Barkhausen noise emission in soft magnetic bilayer ribbons has been investigated. The monolithic amorphous Fe73.5Nb3Si13.5B9Cu1/Fe74.5Nb3Si13.5B9 bilayer system was produced by double-nozzle melt-spinning. It was subsequently used to measure the Barkhausen noise emission in the amorphous state as well as in the annealed state as a function of ...
M. Neslušan, D. Kajánek, M. Pitoňák, D. Janičkovič, F. Andrejka   +4 more
openaire   +2 more sources

Barkhausen noise from zigzag domain walls [PDF]

, 2006
We investigate the Barkhausen noise in ferromagnetic thin films with zigzag domain walls. We use a cellular automaton model that describes the motion of a zigzag domain wall in an impure ferromagnetic quasi-two dimensional sample with in-plane uniaxial ...
B Cerruti, Barkhausen H, Cerruti B Zapperi S, Durin G, Freiser M J, Hubert A, S Zapperi, Vlasko-Vlasov V K   +7 more
core   +1 more source

Dynamics of a ferromagnetic domain wall: avalanches, depinning transition and the Barkhausen effect [PDF]

, 1998
We study the dynamics of a ferromagnetic domain wall driven by an external magnetic field through a disordered medium. The avalanche-like motion of the domain walls between pinned configurations produces a noise known as the Barkhausen effect. We discuss
A. A. Middleton, A. F. Bower, A. L. Barabasi, A. Petri, A. Vespignani, A. Vespignani, B. Alessandro, B. Alessandro, B. Gutenberg, C. P. Bean, C. Tang, D. Cule, D. Cule, D. Ertas, D. S. Fisher, D. S. Fisher, D. S. Rodbell, D. Spasojević, G. Bertotti, G. Bertotti, G. Durin, G. Durin, G. Durin, G. Durin, G. Durin, Gianfranco Durin, H. Barkhausen, H. Bittel, H. Eugene Stanley, H. J. Williams, H. Leschhorn, H. Leschhorn, H. R. Hilzinger, H. R. Hilzinger, J. A. Baldwin, J. A. Baldwin, J. A. Baldwin, J. D. Jackson, J. K. Galt, J. Koplik, J. P. Bouchaud, J. P. Sethna, J. R. Petta, J. R. Petta, J. S. Urbach, J. S. Urbach, J. Schmittbuhl, K. Dahmen, K. Dahmen, K. P. OBrien, L. Balents, L. Landau, L. Néel, L. Néel, L. Néel, L.V. Meisel, L.V. Meisel, M. Mezard, O. Narayan, O. Narayan, O. Narayan, O. Narayan, O. Perkovic, P. Bak, P. Cizeau, Pierre Cizeau, R. Dickman, R. Vergne, S. Ciliberto, S. Field, S. Zapperi, Stefano Zapperi, T. Nattermann, T. Nattermann, U. Lieneweg, W. Grosse-Nobis, Y. Enamoto, Y. Enomoto, Y. Enomoto   +78 more
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Dynamics of a ferromagnetic domain wall and the Barkhausen effect [PDF]

, 1997
We derive an equation of motion for the the dynamics of a ferromagnetic domain wall driven by an external magnetic field through a disordered medium and we study the associated depinning transition.
A. Herpin, B. Alessandro, C. P. Bean, C. Tang, D. Ertas, D. S. Fisher, D. S. Fisher, D. S. Rodbell, D. Spasojević, G. Bertotti, G. Durin, G. Durin, Gianfranco Durin, H. Barkhausen, H. Bittel, H. Eugene Stanley, H. J. Williams, H. Leschhorn, H. R. Hilzinger, J. A. Baldwin, J. D. Jackson, J. K. Galt, J. Koplik, J. P. Sethna, J. R. Petta, J. S. Urbach, K. P. O'Brien, L. Néel, L. Néel,, O. Narayan, O. Narayan, O. Narayan, P. J. Cote, Pierre Cizeau, R. Vergne, Stefano Zapperi, T. Nattermann, W. Grosse-Nobis   +37 more
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Modeling Barkhausen Noise in Magnetic Glasses with Dipole-Dipole Interactions

, 2015
Long-ranged dipole-dipole interactions in magnetic glasses give rise to magnetic domains having labyrinthine patterns. Barkhausen Noise is then expected to result from the movement of domain boundaries which is supposed to be modeled by the motion of ...
Dubey, Awadhesh K., Gupta, Bhaskar Sen, Hentschel, H. George E., Jaiswal, Prabhat K., Mondal, Chandana, Procaccia, Itamar   +5 more
core   +1 more source

Magnetic Barkhausen Noise in quenched carburized steels

Journal of Physics: Conference Series, 2011
Steels with different carbon content, 0.11%C and 0.48%C were submitted to a heat treatment for carburization in the surface. The samples were analyzed after several types of heat treatment, including quenching for producing martensite. The Magnetic Barkhausen Noise (MBN) is directly related to the microstructure. Samples with lower carbon content, have
M F de Campos, F A Franco, R Santos, F S da Silva, S B Ribeiro, J F C Lins, L R Padovese   +6 more
openaire   +1 more source

Barkhausen noise in soft amorphous magnetic materials under applied stress

, 1998
We report experimental measurements of Barkhausen noise on Fe_{64}Co_{21}B_{15} amorphous alloy under tensile stress. We interpret the scaling behavior of the noise distributions in terms of the depinning transition of the domain walls.
Durin G., Gianfranco Durin, Nattermann T., Stefano Zapperi   +3 more
core   +1 more source