High-Energy Charge-Separated States by Reductive Electron Transfer Followed by Electron Shift in the Tetraphenylethylene-Aluminum(III) Porphyrin-Fullerene Triad

Engineering & Materials Science

• Porphyrins 100%
• Fullerenes 88%
• Electrons 57%
• Aluminum 43%
• Artificial photosynthesis 35%
• Photoexcitation 34%
• Photochemical reactions 33%
• Excited states 31%
• Covalent bonds 31%
• Ground state 28%
• Toluene 22%
• Catalysts 16%

Physics & Astronomy

• porphyrins 71%
• fullerenes 59%
• electron transfer 57%
• aluminum 38%
• shift 34%
• polarization (charge separation) 33%
• electrons 23%
• life (durability) 19%
• chemical energy 19%
• photosynthesis 18%
• covalent bonds 17%
• energy 16%
• photochemical reactions 16%
• solar energy 15%
• photoexcitation 15%
• toluene 15%
• excitation 13%
• catalysts 13%
• ground state 9%

Chemical Compounds

• Porphyrin 47%
• Electron Transfer 39%
• Charge Separation 37%
• Fullerene 34%
• Electron Particle 30%
• C60 Fullerene 21%
• Photoexcitation 20%
• Solar Energy 20%
• Excited Singlet State 20%
• Covalent Bond 19%
• Energy 17%
• Photochemical Reaction 17%
• Excited State 15%
• Ground State 14%
• Toluene 14%
• Catalyst 7%