Rear interface engineering of hybrid organicsilicon nanowire solar cells via blade coating

Keyphrases

• Blade Coating 100%
• Interface Engineering 100%
• Alq3 100%
• Nanowire Solar Cells 100%
• Small Molecules 50%
• Organic Silicon 50%
• Hybrid Organic 50%
• Silicon Photovoltaics 50%
• Surface Roughness 25%
• Fill Factor 25%
• Enhancement Mechanism 25%
• Capacitance-voltage 25%
• Open-circuit Voltage 25%
• Schottky Barrier 25%
• Efficiency Increase 25%
• 1,3,4-oxadiazole 25%
• Charge Transport 25%
• Benzene 25%
• Root-mean-square Roughness 25%
• Tert 25%
• Tris(8-hydroxyquinolinato)aluminum 25%
• Interfacial Oxide 25%
• Al-Si 25%
• Large Surfaces 25%
• Built-in Potential 25%
• Morphological Difference 25%
• Net Efficiency 25%
• Rear Surface 25%
• Organic Interlayer 25%

Material Science

• Thin Films 100%
• Silicon Solar Cell 100%
• Nanowire Solar Cell 100%
• Surface Roughness 50%
• Oxide Compound 50%
• Electronic Circuit 50%
• Capacitance 50%
• Aluminum 50%
• Schottky Barrier 50%
• Morphology 50%
• Surface (Surface Science) 50%

Engineering

• Engineering 100%
• Interlayer 100%
• Nanowire Solar Cell 100%
• Thin Films 40%
• Silicon Solar Cell 40%
• Fill Factor 20%
• Open Circuit Voltage 20%
• Schottky Barrier 20%
• Oxide Layer 20%
• Charge Transport 20%
• Root Mean Square 20%
• Square Roughness 20%
• Rear Surface 20%
• Net Efficiency 20%