通过高温冶金合成的锰铁氧体纳米粒子的特性

IF 3.4 3区 化学 Q2 CHEMISTRY, INORGANIC & NUCLEAR Solid State Sciences Pub Date : 2024-07-02 DOI:10.1016/j.solidstatesciences.2024.107621
Salar Ahmad , Sajjad khan , Sajjad Ali , Ikram Ullah , Mohammad Mahtab Alam
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引用次数: 0

摘要

这项研究的重点是廉价合成锰铁氧体纳米粒子。通过简单的火法冶金合成方法,在 1000 ℃、1100 ℃ 和 1200 ℃ 的温度下烧结了氧化铁粉(Fe2O3)和低品位锰矿石的混合物。在这一过程中,控制粒度证明是成功的,这对提高材料的应用至关重要。结果表明,在 1200 ℃ 时,生成的相为锰铁氧体,具有高强度峰值,XRD 衍射图很好地证实了这一点。正如预期的那样,温度升高会显著增加颗粒尺寸。通过热分析发现,在 792 °C 时,重量略有增加,这表明形成了相。傅立叶变换红外光谱显示了 1636 cm-1 处的铁素体伸缩振动特征和 1000 cm-1 以下的其他峰值。TEM 分析和微观结构检查证实,纳米颗粒同时成核和生长,表面有微小孔隙,这表明该材料具有最佳的磁性能和高熔点。该材料显示出低矫顽力和快速的磁态切换,可用于不同的应用领域。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

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Characterization of manganese ferrite nanoparticles synthesized through pyrometallurgy

This research focuses on the cheap synthesis of manganese ferrite nanoparticles. Sintering of a mixture of ferric oxide powder (Fe2O3) and low-grade manganese ore is achieved by a simple pyrometallurgical synthesis method at temperatures of 1000 °C, 1100 °C, and 1200 °C. In this process, controlling the particle size proved successful, which is essential to increasing the application of the material. Results have shown that at 1200 °C, the developed phase was a manganese ferrite with a high-intensity peak, which was well confirmed by the XRD diffractogram. As expected, an increase in temperature significantly increased particle size. Through thermal analysis, a minor gain in weight was found at 792 °C, which indicates the formation of phases. The FTIR spectra showed characteristic ferrite stretching vibrations at 1636 cm-1 and other peaks below 1000 cm-1. TEM analysis and microstructural examination confirmed the simultaneous nucleation and growth of nanoparticles with tiny surface pores, indicating optimal magnetic properties and a high melting point. The material showed low coercivity and rapid switching of magnetic states, which is useful for different applications.

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来源期刊
Solid State Sciences
Solid State Sciences 化学-无机化学与核化学
CiteScore
6.60
自引率
2.90%
发文量
214
审稿时长
27 days
期刊介绍: Solid State Sciences is the journal for researchers from the broad solid state chemistry and physics community. It publishes key articles on all aspects of solid state synthesis, structure-property relationships, theory and functionalities, in relation with experiments. Key topics for stand-alone papers and special issues: -Novel ways of synthesis, inorganic functional materials, including porous and glassy materials, hybrid organic-inorganic compounds and nanomaterials -Physical properties, emphasizing but not limited to the electrical, magnetical and optical features -Materials related to information technology and energy and environmental sciences. The journal publishes feature articles from experts in the field upon invitation. Solid State Sciences - your gateway to energy-related materials.
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