Achieving high electric energy storage in a polymer nanocomposite at low filling ratios using a highly polarizable phthalocyanine interphase

Engineering & Materials Science

• Electric energy storage 87%
• Nanocomposites 59%
• Composite films 52%
• Polymers 40%
• Permittivity 36%
• Nanoparticles 36%
• Atom transfer radical polymerization 36%
• Thin films 34%
• Dielectric films 27%
• Polymethyl methacrylates 24%
• Polymer matrix 22%
• Brushes 21%
• Composite materials 21%
• Electric breakdown 20%
• Fillers 17%

Chemical Compounds

• Electric Energy 79%
• Metallophthalocyanine 62%
• Phthalocyanine 55%
• Energy Storage 47%
• Nanocomposite 36%
• Poly(vinylidene) 30%
• Composite Material 27%
• Dielectric Constant 25%
• Electric Breakdown 24%
• Dielectric Film 20%
• Energy 19%
• Polarizability 14%
• Atom Transfer Radical Polymerization 13%
• Nanoparticle 13%
• Liquid Film 13%
• Filler 11%
• Strength 8%
• Amount 5%
• Application 4%

Physics & Astronomy

• electric energy storage 100%
• nanocomposites 48%
• composite materials 33%
• flux density 33%
• polymers 32%
• vinylidene 30%
• fluorides 26%
• permittivity 19%
• nanoparticles 18%
• initiators 17%
• brushes 16%
• matrices 15%
• actuation 14%
• polymethyl methacrylate 14%
• fillers 13%
• polymerization 13%
• breakdown 10%
• thin films 7%
• atoms 6%