Novel synthetic pathways to wide bandgap semiconductors in the Si-C-Al-N system

Engineering & Materials Science

• Energy gap 100%
• Crystalline materials 92%
• Lattice mismatch 78%
• Semiconductor materials 78%
• Film growth 69%
• Molecular beam epitaxy 68%
• Epitaxial films 66%
• Density functional theory 65%
• Epitaxial growth 61%
• Phase structure 57%
• Solubility 48%
• Nucleation 46%
• Atoms 45%
• Physical properties 39%
• Hardness 34%
• Substrates 31%

Chemical Compounds

• Hardness (Mechanical) 73%
• Semiconductor 67%
• Band Gap 66%
• Molecular Beam Epitaxy 63%
• Liquid Film 42%
• Cubic Space Group 36%
• Nucleation 36%
• Hexagonal Space Group 34%
• Simulation 27%
• Solubility 27%
• Density Functional Theory 27%
• Surface 14%

Physics & Astronomy

• wurtzite 43%
• templates 40%
• molecular beam epitaxy 37%
• hardness 34%
• physical properties 34%
• density functional theory 33%
• nucleation 32%
• characterization 24%
• atoms 22%
• simulation 16%