P-type doping of organic wide band gap materials by transition metal oxides: A case-study on Molybdenum trioxide

Engineering & Materials Science

• Chemical activation 10%
• Doping (additives) 64%
• Electron affinity 22%
• Electron energy levels 26%
• Electrons 11%
• Energy gap 66%
• Fermi level 40%
• Ionization potential 20%
• Molecular orbitals 19%
• Molecules 11%
• Molybdenum 67%
• Photoelectron spectroscopy 19%
• Thin films 33%
• Transition metal oxides 100%
• Ultraviolet photoelectron spectroscopy 27%

Physics & Astronomy

• activation 15%
• broadband 40%
• conductivity 25%
• diamines 25%
• electron affinity 22%
• electron transfer 19%
• energy 5%
• energy levels 31%
• ionization 13%
• metal oxides 56%
• molecular orbitals 19%
• molecules 10%
• molybdenum 57%
• photoelectron spectroscopy 31%
• shift 11%
• thin films 29%
• transition metals 48%
• trapping 14%
• ultraviolet spectroscopy 23%

Chemical Compounds

• Band Gap 43%
• Conductivity 25%
• Doping Material 34%
• Electron Transfer 13%
• Energy 18%
• Fermi Level 44%
• Highest Occupied Molecular Orbital 21%
• Ionization Potential 19%
• Molecular Cluster 25%
• Molecule 6%
• Molybdenum Trioxide 82%
• Photoelectron Spectroscopy 19%
• Ultra-Violet Photoelectron Spectroscopy 24%
• Work Function 22%