In situ hydrodynamic spectroscopy for structure characterization of porous energy storage electrodes

Engineering

• Atomic Force Microscopy 50%
• Cell Volume 50%
• Dimensional Change 50%
• Electrode Structure 100%
• Energy Storage 100%
• Harmonics 50%
• Hydrodynamics 100%
• Induced Change 100%
• Internals 50%
• Mesoscopic Scale 50%
• Multiscale 50%
• Nanometre 50%
• Porosity 100%
• Porous Electrode 100%
• Porous Structure 50%
• Quartz Crystal Microbalance 100%
• Scale Effect 50%
• Secondary Battery 50%
• Sensing Mechanisms 50%
• Supercapacitor 50%
• Thickness Change 50%

Keyphrases

• Applications in the Field 33%
• Atomic Force Microscopy 33%
• Atomic Scale 33%
• Battery-type Electrode 33%
• Binder 33%
• Composite Electrode 33%
• Crystalline Materials 33%
• Electrochemical Dilatometry 33%
• Electrochemical Quartz Crystal Microbalance 33%
• Electrode Thickness 33%
• Energy Storage Electrode 100%
• Energy Storage Performance 33%
• In Situ 100%
• Internal Electrodes 33%
• Li-ion 33%
• Mesoscopic Scale 33%
• Micromechanics 33%
• Nanometer Scale 33%
• Overtone 33%
• Performance Stability 33%
• Porous Electrode Structure 66%
• Porous Interface 33%
• Porous Structure 33%
• Quartz Crystal Microbalance with Dissipation (QCM-D) 33%
• Rechargeable Batteries 33%
• Scale Effect 33%
• Sensing Technique 33%
• Spectroscopic Techniques 33%
• Structure Characterization 100%
• Supercapacitor 33%
• Thickness Change 33%
• Unit Cell Volume 33%
• Viscoelastic Properties 33%

Material Science

• Crystalline Material 50%
• Dilatometry 50%
• Electrochemical Quartz Crystal Microbalance 50%
• Hydrodynamics 100%
• Lithium Ion 50%
• Secondary Battery 50%
• Supercapacitors 50%