Advance effect of magnetic field on the rheological properties of manganese zinc ferrite ferrofluid

The rheological characteristics of manganese zinc (Mn-Zn) ferrite magnetic nanofluid synthesized using co-precipitation technique were examined in the absence and presence of magnetic fields. The research formulates required conditions needed for the formation of a gelly-like structure. The impact...

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Main Authors: A. A. Ibiyemi, O. Akinrinola, G. T. Yusuf, S. Olaniyan, J. Lawal, M. Orojo, B. Osuporu
Format: Article
Language:English
Published: Nigerian Society of Physical Sciences 2024-03-01
Series:Journal of Nigerian Society of Physical Sciences
Subjects:
Online Access:https://journal.nsps.org.ng/index.php/jnsps/article/view/1897
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author A. A. Ibiyemi
O. Akinrinola
G. T. Yusuf
S. Olaniyan
J. Lawal
M. Orojo
B. Osuporu
author_facet A. A. Ibiyemi
O. Akinrinola
G. T. Yusuf
S. Olaniyan
J. Lawal
M. Orojo
B. Osuporu
author_sort A. A. Ibiyemi
collection DOAJ
description The rheological characteristics of manganese zinc (Mn-Zn) ferrite magnetic nanofluid synthesized using co-precipitation technique were examined in the absence and presence of magnetic fields. The research formulates required conditions needed for the formation of a gelly-like structure. The impact of magnetic field and temperature on the rheological properties of Mn-Zn ferrite ferrofluid is investigated. When a magnetic field was applied, higher magnetoviscoelasticity and magnetoviscosity were formed. Analysis was also done on other rheological parameters, such as the damping factor, which is crucial for regulating and restricting vibrations in a system. A stiff, gel-like structure is produced when a magnetic field is applied, and the gel-like quality grows as the magnetic field increases; when the magnetic field is removed, the gel-like and rigidity of the structure is lost. At low temperatures, the liquid phase is dominated by solid-like particles, whereas at high temperatures, the liquid-like structure is dominant. This study reveals the conditions required for the creation of high viscous effect and the viscoelastic behavior induced by the field offers important insights for optimizing the Mn-Zn ferrite ferrofluid for a range of applications. Other criterial for gel-like structure formation such as low torque and deflection angle of the ferrofluid were also established.   
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spelling doaj.art-9c3ff7f7adb94ed5b14c834b782db9232024-03-13T17:01:45ZengNigerian Society of Physical SciencesJournal of Nigerian Society of Physical Sciences2714-28172714-47042024-03-016210.46481/jnsps.2024.1897Advance effect of magnetic field on the rheological properties of manganese zinc ferrite ferrofluidA. A. Ibiyemi0O. Akinrinola1G. T. Yusuf2S. Olaniyan3J. Lawal4M. Orojo5B. Osuporu6Department of Physics, Federal University, Oye-Ekiti, NigeriaDepartment of Physics, Ladoke Akintola University of Technology, Ogbomoso, NigeriaDepartment of Science Laboratory Technology, Osun State Polytechnic, Iree, NigeriaDepartment of Physics, Federal University, Oye-Ekiti, NigeriaDepartment of Science Laboratory Technology, Federal Polytechnic, Ede, NigeriaDepartment of Physics, Federal University, Oye-Ekiti, NigeriaDepartment of Physics, Federal University, Oye-Ekiti, Nigeria The rheological characteristics of manganese zinc (Mn-Zn) ferrite magnetic nanofluid synthesized using co-precipitation technique were examined in the absence and presence of magnetic fields. The research formulates required conditions needed for the formation of a gelly-like structure. The impact of magnetic field and temperature on the rheological properties of Mn-Zn ferrite ferrofluid is investigated. When a magnetic field was applied, higher magnetoviscoelasticity and magnetoviscosity were formed. Analysis was also done on other rheological parameters, such as the damping factor, which is crucial for regulating and restricting vibrations in a system. A stiff, gel-like structure is produced when a magnetic field is applied, and the gel-like quality grows as the magnetic field increases; when the magnetic field is removed, the gel-like and rigidity of the structure is lost. At low temperatures, the liquid phase is dominated by solid-like particles, whereas at high temperatures, the liquid-like structure is dominant. This study reveals the conditions required for the creation of high viscous effect and the viscoelastic behavior induced by the field offers important insights for optimizing the Mn-Zn ferrite ferrofluid for a range of applications. Other criterial for gel-like structure formation such as low torque and deflection angle of the ferrofluid were also established.    https://journal.nsps.org.ng/index.php/jnsps/article/view/1897Complex viscosityMagnetizationCoercivityModulus
spellingShingle A. A. Ibiyemi
O. Akinrinola
G. T. Yusuf
S. Olaniyan
J. Lawal
M. Orojo
B. Osuporu
Advance effect of magnetic field on the rheological properties of manganese zinc ferrite ferrofluid
Journal of Nigerian Society of Physical Sciences
Complex viscosity
Magnetization
Coercivity
Modulus
title Advance effect of magnetic field on the rheological properties of manganese zinc ferrite ferrofluid
title_full Advance effect of magnetic field on the rheological properties of manganese zinc ferrite ferrofluid
title_fullStr Advance effect of magnetic field on the rheological properties of manganese zinc ferrite ferrofluid
title_full_unstemmed Advance effect of magnetic field on the rheological properties of manganese zinc ferrite ferrofluid
title_short Advance effect of magnetic field on the rheological properties of manganese zinc ferrite ferrofluid
title_sort advance effect of magnetic field on the rheological properties of manganese zinc ferrite ferrofluid
topic Complex viscosity
Magnetization
Coercivity
Modulus
url https://journal.nsps.org.ng/index.php/jnsps/article/view/1897
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AT oakinrinola advanceeffectofmagneticfieldontherheologicalpropertiesofmanganesezincferriteferrofluid
AT gtyusuf advanceeffectofmagneticfieldontherheologicalpropertiesofmanganesezincferriteferrofluid
AT solaniyan advanceeffectofmagneticfieldontherheologicalpropertiesofmanganesezincferriteferrofluid
AT jlawal advanceeffectofmagneticfieldontherheologicalpropertiesofmanganesezincferriteferrofluid
AT morojo advanceeffectofmagneticfieldontherheologicalpropertiesofmanganesezincferriteferrofluid
AT bosuporu advanceeffectofmagneticfieldontherheologicalpropertiesofmanganesezincferriteferrofluid