Anhydrous Proton Conducting Polymer Electrolyte Membranes via Polymerization-Induced Microphase Separation

Keyphrases

• Battery Temperature 14%
• Bicontinuous Morphology 14%
• Block Copolymer 14%
• Chain Transfer Agent 14%
• Conducting Pathways 14%
• Divinylbenzene 14%
• Elastic Modulus 14%
• High Ionic Conductivity 14%
• High Temperature 14%
• High Thermal Stability 14%
• High-temperature Fuel Cells 14%
• Highly Crosslinked 14%
• Hypercrosslinked Polystyrene 28%
• In Situ Preparation 14%
• Ionic Conductivity 28%
• Liquid Precursor 14%
• Lithium-ion Battery 14%
• Mechanical Robustness 14%
• Mechanical Stability 14%
• Microphase 14%
• Monolith 14%
• Nanochannel 14%
• Nanostructured Polymers 14%
• Poly(ethylene oxide) 42%
• Polymer Electrolyte Membrane 100%
• Polymerization-induced Microphase Separation 100%
• Protic Ionic Liquids 71%
• Proton 14%
• Proton Conducting Polymer Electrolyte 100%
• Proton Conduction 14%
• Proton Conductivity 14%
• Solid Polymer Electrolyte 14%
• Styrene 14%
• Synthetic Strategies 14%
• Temperature Robust 14%
• Thermal Stability 14%
• Transference number 14%

Material Science

• Block Copolymer 14%
• Conducting Polymer 100%
• Elastic Moduli 14%
• Ionic Conductivity 42%
• Ionic Liquid 71%
• Lithium Ion Battery 14%
• Mechanical Stability 14%
• Polyethylene Glycol 42%
• Polymer Electrolyte 100%
• Polymerization 100%
• Polystyrene 28%
• Thermal Stability 14%