Advanced Functional Materials · 2017 · 112 citations · 201 references
Natural SciencesMaterials EngineeringMaterials ScienceElectronic MaterialsMaterials ChemistryThin FilmsHybrid MaterialsPerovskite MaterialsSemiconductor Crystal GrowthSemiconductor SurfacesSurface PhysicsThin-film MaterialsComplex OxidesMolecular Beam EpitaxyMolecular Beam Epitaxy KineticsOrganic-inorganic Hybrid PerovskitesOxide Growth KineticsOxide PerovskitesPerovskite OxidesThin Oxide Films
Abstract Driven by an ever‐expanding interest in new material systems with new functionality, the growth of atomic‐scale electronic materials by molecular beam epitaxy (MBE) has evolved continuously since the 1950s. Here, a new MBE technique called hybrid ‐MBE ( h MBE) is reviewed that has been proven a powerful approach for tackling the challenge of growing high‐quality, multicomponent complex oxides, specifically the AB O 3 perovskites. The goal of this work is to (1) discuss the development of h MBE in a historical context, (2) review the advantageous surface kinetics and chemistry that enable the self‐regulated growth of AB O 3 perovskites, (3) layout the key components and technical challenges associated with h MBE, (4) review the status of the field and the materials that have been successfully grown by h MBE which demonstrate its general applicability, and (5) discuss the future of h MBE in regards to technical innovations and expansion into new material classes, which are aimed at expanding into industrial realm and at tackling new scientific endeavors.
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Absence of Diffusion in Certain Random Lattices
P. W. Anderson · Physical Review · 1958 · 12.3K citations
Masatoshi Imada, A. Fujimori, Yoshinori Tokura · Reviews of Modern Physics · 1998 · 7.5K citations