Spatially-resolving nanoscopic structure and excitonic-charge-transfer quenching in molecular semiconductor heterojunctions

Engineering & Materials Science

• Near field scanning optical microscopy 91%
• Heterojunctions 91%
• Charge transfer 89%
• Quenching 72%
• Annealing 69%
• Semiconductor materials 62%
• Fluorescence quenching 46%
• Nanocrystallites 42%
• Vapors 41%
• Excitons 41%
• Vacuum deposition 39%
• Dichloromethane 37%
• Photoelectric cells 37%
• Atomic force microscopy 29%
• Fluorescence 26%
• Spectroscopy 26%
• Needles 24%
• Crystalline materials 24%
• Crystals 23%
• Light emitting diodes 23%
• X ray diffraction 22%
• Data communication systems 20%
• Scanning 17%
• Substrates 16%

Medicine & Life Sciences

• Semiconductors 100%
• Perylene 65%
• Microscopy 58%
• phthalocyanine 57%
• Fluorescence 57%
• Methylene Chloride 47%
• Atomic Force Microscopy 42%
• X-Ray Diffraction 42%
• Vacuum 40%
• Spectrum Analysis 34%
• Needles 31%
• Equipment and Supplies 21%

Chemical Compounds

• Charge Separation 69%
• Near-Field Scanning Optical Microscopy 58%
• Semiconductor 53%
• Perylene 39%
• Exciton 35%
• Phthalocyanine 35%
• Liquid Film 33%
• Fluorescence Quenching 33%
• Dichloromethane 30%
• Vacuum 27%
• Annealing 27%
• Charge Transfer 24%
• Force 23%
• Spectroscopy 22%
• Length 20%
• Fluorescence 20%
• X-Ray Diffraction 17%
• Reaction Yield 14%