Improved efficiency and stability of organic solar cells by interface modification using atomic layer deposition of ultrathin aluminum oxide

Keyphrases

• Active Sites 33%
• Al2O3 Interlayer 66%
• Al2O3 Layer 33%
• Aluminum Oxide 100%
• Atomic Layer Deposition 100%
• Atomic Layer Deposition Al2O3 100%
• Device Performance 66%
• Device Stability 66%
• Efficiency Improvement 100%
• Electron Transport Layer 66%
• Enhanced Stability 100%
• Fill Factor 33%
• Interface Modification 100%
• Interfacial Contact 33%
• Inverted Architecture 33%
• Moisture 33%
• Open-circuit Voltage 33%
• Organic Solar Cell Stability 100%
• Oxygen Adsorption 33%
• Passivated 33%
• Photoactive Layer 66%
• Photocatalytic Activity 33%
• Recombination Losses 33%
• Reduced Recombination 33%
• Short-circuit Current Density 33%
• Surface Defects 33%
• Surface Morphology 33%
• Ultrathin 100%
• Work Function 33%

Engineering

• Active Layer 20%
• Active Site 20%
• Adsorption 20%
• Aluminum Oxide 100%
• Atomic Layer Deposition 100%
• Device Performance 40%
• Fill Factor 20%
• Improving Device 20%
• Interlayer 40%
• Open Circuit Voltage 20%
• Organic Solar Cells 100%
• Recombination Loss 20%
• Short-Circuit Current Density 20%
• Surface Defect 20%
• Surface Morphology 20%
• Thin Layer 20%

Material Science

• Al2O3 100%
• Aluminum Oxide 100%
• Density 25%
• Electronic Circuit 50%
• Organic Solar Cells 100%
• Surface Defect 25%
• Surface Morphology 25%
• ZnO 100%