Structural and magnetic characterization of Co²⁺ substituted Ni-Zn ferrite nanoparticles synthesized by refluxing co-precipitation and their potential application as gas sensors

Keyphrases

• Structural Characterization 100%
• Gas Sensor 100%
• Refluxing 100%
• Magnetic Characterization 100%
• Co2+ 100%
• Mn-Zn Ferrite Nanoparticles 100%
• Room Temperature 40%
• Propanol 40%
• Fe3+ 40%
• X-ray Diffraction Pattern 20%
• Crystallite Size 20%
• Ethanol 20%
• Nanomaterials 20%
• Methanol 20%
• X-ray Diffraction Microscopy 20%
• Electron Microscopy 20%
• Nanoferrites 20%
• B-site 20%
• 57Fe 20%
• Mssbauer 20%
• Magnetization 20%
• Extracting Information 20%
• Lattice Constant 20%
• Magnetic Phases 20%
• Fe2+ 20%
• Specific Surface Area 20%
• Gas Sensing Properties 20%
• Initial Magnetic Susceptibility 20%
• Sensor Fabrication 20%
• Magnetic Sensing 20%
• Vibrating Sample Magnetometer 20%
• Average Pore Size 20%
• Effective Anisotropy Constant 20%
• Coercivity 20%
• Metal Chloride 20%
• Morphological Aspects 20%
• Saturation Magnetization 20%
• Zn2+ 20%
• Remnant Magnetization 20%
• Magnetic Units 20%
• Magnetic Transition 20%
• Unit Cell Volume 20%
• Exceptional Responders 20%
• Structural Sensing 20%
• Pore Size Distribution 20%

Material Science

• X-Ray Diffraction 100%
• Nanoparticle 100%
• Coprecipitation 100%
• Diffraction Pattern 50%
• Morphology 50%
• Crystallite Size 50%
• Electron Microscopy 50%
• Lattice Constant 50%
• Magnetic Susceptibility 50%
• Pore Size Distribution 50%
• Magnetometer 50%
• Anisotropy 50%
• Nanostructured Material 50%
• Phase Composition 50%

Chemical Engineering

• Nanoparticle 100%
• Propanol 100%
• Coprecipitation 100%
• Methanol 50%