Towards Improving the Efficiency of Organic Solar Cells by Coarse-Grained Atomistic Modeling of Processing Dependent Morphologies

INIS

• processing 100%
• efficiency 100%
• morphology 100%
• modeling 100%
• organic solar cells 100%
• design 50%
• simulation 50%
• power 50%
• conversion 50%
• stability 33%
• performance 33%
• microstructure 33%
• heterojunctions 33%
• annealing 33%
• electron microscopy 16%
• correlations 16%
• molecules 16%
• polymers 16%
• scattering 16%
• nanostructures 16%
• probes 16%
• chains 16%
• mimic 16%
• optimization 16%
• physics 16%
• solutions 16%
• electrons 16%
• transport 16%
• layers 16%
• semiconductor materials 16%
• molecular dynamics method 16%
• electricity 16%
• photons 16%
• solvents 16%
• molecular weight 16%
• solar cells 16%
• solar energy conversion 16%
• electron donor 16%
• organic semiconductors 16%
• evaporation 16%
• electron acceptor 16%

Chemistry

• Organic Solar Cells 100%
• Annealing 50%
• Procedure 50%
• Donor 50%
• Electron Particle 25%
• Electron Acceptor 25%
• Electron Donor 25%
• Organic Molecule 25%
• Nanomaterial 25%
• Solar Cell 25%
• Aqueous Solution 25%
• Electron Microscopy 25%
• Microstructure 25%
• Electricity 25%
• Polymer Chain 25%
• Semiconductor 25%
• Polydispersity 25%
• Solar Energy Conversion 25%
• Solvent Evaporation 25%
• Molecular Mass 25%
• Phase Composition 25%
• Structure 25%
• Molecular Dynamics 25%
• Optimization 25%
• Probe 25%
• Scattering 25%
• Reaction Temperature 25%
• Correlation 25%

Material Science

• Morphology 100%
• Material 50%
• Annealing 33%
• Mechanical Stability 33%
• Characterization 16%
• Polymer 16%
• Molecular Simulation 16%
• Semiconductor Material 16%
• Heterojunction 16%
• Nanocrystalline Material 16%
• Organic Semiconductor 16%
• Electronics 16%
• Solvent 16%
• Electron Microscopy 16%
• Temperature 16%
• Microstructure 16%
• Bulk Heterojunction Solar Cell 16%