Study of LSMO Ceramics through Different Synthesis Route

Swapnilkumar S. Patil; Prafulla K. Jha; Parag Bhargava

doi:10.4028/www.scientific.net/AMR.1141.111

Paper Titles

Vibrational and Elastic Properties of Bulk Metallic Glass: Application to Pd₆₄Fe₁₆P₂₀
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Influence of Swift Heavy O⁷⁺ Ion Irradiation on Conductivity and Relaxation Dynamics of Two Different Blends of PVA:PEO:LiCF₃SO₃:EC System
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Growth and Electrical Characterizations of Sn_0.3Se_0.7 Crystals Grown by Direct Vapour Transport Technique
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The Theoretical Study of High Pressure Equation of State and Relative Volume Thermal Expansion of fcc Transition Metals Ni, Pd and Pt Using Mean Field Potential Approach
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Study of LSMO Ceramics through Different Synthesis Route
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Targeting MLL-CXXC Domain with Synthetic CpG Dinucleotides: Docking and Molecular Dynamics Simulation Based Approach
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Theoretical Modelling of Equations of States for Aluminum to Pressure up to 10 TPa and Temperature to 10 eV
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Study of Molecular Interaction in Binary Mixtures (1-Propanol + Acetophenone)
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Prediction of Static Dielectric Constant (ε₀) and Refractive Index (n) Using Various Models for Binary Mixtures (Acetophenone with N-Hexanol)
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HomeAdvanced Materials ResearchAdvanced Materials Research Vol. 1141Study of LSMO Ceramics through Different Synthesis...

Study of LSMO Ceramics through Different Synthesis Route

Abstract:

The interest in perovskite ceramics has been increased in recent years due to its useful properties and applications in various fields. We report the systematic study to explain the surface morphology and crystallographic nature of LSMO, prepared by solid state reaction and ball milling technique. The Density of the samples was calculated by Archimedes’s principle. The X-ray diffraction method was used to study the structural properties of the sintered powder using Philips Pro X’pertPANalytical. It exhibit dominant peak at (110) , (024) reflections , which confirms a polycrystalline nature of the powder. The surface morphology and elemental analysis of the samples is done by FEG-scanning electron microscope and energy dispersive spectrometry (EDS), confirms the absence of impurities in the samples. The analysis of FEG-SEM results and crystallite size verify the arrangement of LSMO particles in the range of 40-60 nm. The results show that the synthesis of LSMO ceramics in nanoparticle range is possible by the said techniques.