Remolding the Interface Stability for Practical Aqueous Zn/I₂ Batteries via Sulfonic Acid-Rich Electrolyte and Separator Design

Keyphrases

• Electrolyte Design 100%
• Sulfonic Acid 100%
• Zn-I2 Batteries 100%
• Interface Stability 100%
• Separator Design 100%
• Sodium 50%
• In Situ Spectroscopy 50%
• Lignosulfonic Acid 50%
• Electrolyte 25%
• Synergistic Effect 25%
• High Performance 25%
• Cryogenic Electron Microscopy 25%
• In Situ 25%
• Valuable Insight 25%
• Fourier Transform Infrared Spectroscopy (FT-IR) 25%
• Homogeneous nucleation 25%
• Electrolyte Additive 25%
• Side Reactions 25%
• Anions 25%
• Synchrotron Techniques 25%
• Separator 25%
• Measurement Simulation 25%
• Chemisorption 25%
• Electrode-electrolyte Interface 25%
• Operando 25%
• Electrolyte Interface 25%
• Electrolyte Separators 25%
• Electrostatic Repulsion 25%
• Zn2+ 25%
• Solid Electrolyte Interface 25%
• Zn Anode 25%
• Shuttle Effect 25%
• Polyethersulfone Membrane 25%
• Desolvation Process 25%
• Stable Solid Electrolyte Interface 25%
• Effective Additive 25%
• Zinc Fluoride 25%
• Sulfonated Polyethersulfone 25%
• Operando Measurements 25%
• Visualization Experiment 25%

Material Science

• Solid Electrolyte 100%
• Sodium 100%
• Nucleation 50%
• Electrolyte Additive 50%
• Fourier Transform Infrared Spectroscopy 50%
• Chemisorption 50%
• Plating 50%
• Zinc Anode 50%
• Cryo-Electron Microscopy 50%

Chemical Engineering

• Operando 100%
• Chemisorption 50%
• Polyether 50%