Synthesis of nano-manganese ferrite by an oxalate method and characterization of its magnetic properties
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Abstract
In this work, nano-sized manganese ferrite (MnFe2O4) was synthesized through the decomposition of the mixed oxalates. The formation of the spinel manganese ferrite was confirmed by X-ray diffraction analysis. The morphology of the ferrite products was studied by scanning electron microscopy. The particle size, which was determined using the Scherrer formula, ranged from 25 to 30 nm. Magnetic properties of the manganese ferrite were analyzed using a vibrating sample magnetometry technique; a narrow hysteresis loop indicated the MnFe2O4 obtained was a soft ferromagnet. Magnetic properties of the manganese ferrite produced were in agreement with those reported in literature for MnFe2O4 nanoparticles prepared by conventional methods, including co-precipitation and mechanochemical processes. By plotting a series of literature data determined by different authors and techniques, a correlation between saturation magnetisation and particle size has been noted regardless of the synthesis methods. In general, the oxalate method seems to be able to produce nano-manganese ferrite in a shorter time (2–3 h) as compared to other conventional techniques reported in literature (up to 54 h).
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Articles in the same Issue
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- Contents
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- Round robin for testing instrumented indenters with silicon reference springs
- Effect of heat treatment and deformation on the microstructure and mechanical properties of SP-700 titanium alloy
- Bulk processing of fine grained OFHC copper by cyclic channel die compression
- Microstructure of Al-5Ti-0.6C-1Ce master alloy and its grain-refining performance
- Rheological study of semi-solid TiAl3/ZL101 composites prepared by ultrasonic vibration
- Mathematical modeling of energy transfer to sheet surface layers and optimization of roll bonding strength
- The impact of consolidation and interparticle forces on cohesive cement powder
- Synthesis of nano-manganese ferrite by an oxalate method and characterization of its magnetic properties
- Effect of short milling time and microwave heating on phase evolution, microstructure and mechanical properties of alumina–mullite–zirconia composites
- Preparation and characterization of 2–2 piezoelectric composites for damping application
- Fluorine-substituted HA reinforced with zircon as a novel nano-biocomposite ceramic: Preparation and characterization
- Short Communications
- Synthesis of high-density aligned Fe2O3 nanowires via two-step thermal oxidation
- Thermochemical synthesis and sintering of silver-8 wt.% copper oxide nanocomposite powders
- Effect of hybrid reinforcement on the high temperature tensile behavior of magnesium nanocomposite
- DGM News
- DGM News
Articles in the same Issue
- Contents
- Contents
- Original Contributions
- Round robin for testing instrumented indenters with silicon reference springs
- Effect of heat treatment and deformation on the microstructure and mechanical properties of SP-700 titanium alloy
- Bulk processing of fine grained OFHC copper by cyclic channel die compression
- Microstructure of Al-5Ti-0.6C-1Ce master alloy and its grain-refining performance
- Rheological study of semi-solid TiAl3/ZL101 composites prepared by ultrasonic vibration
- Mathematical modeling of energy transfer to sheet surface layers and optimization of roll bonding strength
- The impact of consolidation and interparticle forces on cohesive cement powder
- Synthesis of nano-manganese ferrite by an oxalate method and characterization of its magnetic properties
- Effect of short milling time and microwave heating on phase evolution, microstructure and mechanical properties of alumina–mullite–zirconia composites
- Preparation and characterization of 2–2 piezoelectric composites for damping application
- Fluorine-substituted HA reinforced with zircon as a novel nano-biocomposite ceramic: Preparation and characterization
- Short Communications
- Synthesis of high-density aligned Fe2O3 nanowires via two-step thermal oxidation
- Thermochemical synthesis and sintering of silver-8 wt.% copper oxide nanocomposite powders
- Effect of hybrid reinforcement on the high temperature tensile behavior of magnesium nanocomposite
- DGM News
- DGM News