Effect of Al₂O₃ nanowires on the electrochemical properties of di-ureasil-based organic–inorganic hybrid electrolytes

Engineering & Materials Science

• Electrochemical properties 100%
• Glycols 91%
• Nanowires 88%
• Propylene 83%
• Electrolytes 69%
• Aluminum oxide 68%
• Ionic conductivity 53%
• Fourier transform infrared spectroscopy 44%
• Magic angle spinning 32%
• Complexation 29%
• Voltammetry 27%
• X ray powder diffraction 27%
• Block copolymers 24%
• Ethylene glycol 23%
• Nuclear magnetic resonance 21%
• Ethers 20%
• Differential scanning calorimetry 20%
• Thermogravimetric analysis 19%
• Lithium 19%
• Structural properties 19%
• Lithium-ion batteries 19%
• Fillers 16%
• Polarization 16%
• Acoustic impedance 13%
• Electric potential 9%
• Temperature 7%

Chemical Compounds

• Ionic Conductivity 66%
• Glycol 66%
• Nanowire 62%
• 29Si Cross Polarisation Magic Angle Spinning 59%
• Propene 58%
• Cross-Polarization Magic-Angle-Spinning NMR 44%
• Linear Sweep Voltammetry 41%
• Fourier Transform Infrared Spectroscopy 40%
• Isocyanate 36%
• Ethylene Glycol 31%
• Filler 30%
• Block Copolymer 29%
• Complexation 27%
• Powder X-Ray Diffraction 27%
• Voltage 25%
• Differential Scanning Calorimetry 25%
• Thermogravimetric Analysis 25%
• Ether 24%
• Application 11%

Physics & Astronomy

• glycols 76%
• propylene 68%
• electrolytes 59%
• nanowires 57%
• ion currents 29%
• infrared spectroscopy 25%
• lithium 25%
• isocyanates 21%
• cross polarization 17%
• ethers 15%
• electric batteries 14%
• fillers 14%
• metal spinning 14%
• low voltage 14%
• copolymers 13%
• ethylene 13%
• heat measurement 12%
• occurrences 11%
• nuclear magnetic resonance 11%
• impedance 10%
• temperature dependence 9%
• scanning 8%
• diffraction 7%
• ions 6%
• x rays 6%
• interactions 5%