Hybrid Molecular Beam Epitaxy for Single-Crystalline Oxide Membranes with Binary Oxide Sacrificial Layers

Engineering & Materials Science

• Molecular beam epitaxy 100%
• Crystalline materials 67%
• Oxides 55%
• Membranes 54%
• Alkaline earth metals 53%
• Deionized water 42%
• Exfoliation (materials science) 25%
• Lattice constants 23%
• Epitaxial growth 22%
• Perovskite 22%
• Stoichiometry 21%
• Dissimilar materials 21%
• Heterojunctions 21%
• Crystal structure 20%
• Dielectric properties 19%
• Spectroscopy 18%
• Dissolution 17%
• Transmission electron microscopy 16%
• X ray diffraction 15%
• Thin films 15%
• Scattering 15%
• Salts 15%
• Rocks 13%
• Scanning electron microscopy 12%
• Fabrication 11%
• Acoustic impedance 11%

Chemical Compounds

• Molecular Beam Epitaxy 92%
• Alkaline Earth Metal 43%
• Oxide 34%
• Epitaxial Growth 26%
• Scanning Transmission Electron Microscopy 24%
• Exfoliation 22%
• Dielectric Property 21%
• Liquid Film 20%
• Lattice Parameter 20%
• Optical Microscopy 19%
• Metal Oxide 17%
• Reaction Stoichiometry 17%
• Atomic Force Microscopy 17%
• Impedance Spectroscopy 16%
• Dissolution 16%
• Crystal Structure 10%
• Application 6%

Physics & Astronomy

• molecular beam epitaxy 54%
• membranes 47%
• oxides 40%
• alkaline earth oxides 28%
• alkaline earth metals 25%
• metal oxides 17%
• halites 11%
• water 10%
• stoichiometry 8%
• dissolving 8%
• lattice parameters 8%
• coverings 7%
• near fields 7%
• perovskites 7%
• dielectric properties 7%
• crystal structure 7%
• atomic force microscopy 7%
• impedance 7%
• synthesis 6%
• microscopy 6%
• transmission electron microscopy 6%
• scanning electron microscopy 5%
• high resolution 5%
• fabrication 5%
• diffraction 4%
• spectroscopy 4%
• thin films 4%
• scattering 4%
• x rays 4%