Applied Physics Letters · 2005 · 17 citations · 12 references
Natural SciencesElectrical EngineeringMaterials ScienceMicrofabricationOpticsPhotonicsIntegrated OpticsOptical Thin FilmsQuantum ConfinementQuantum DotsQuantum OptoelectronicsSemiconductor NanomaterialsEpitaxial MaterialsMesa FormationQuantum Dot MaterialsRobust DesignRobust Mechanical DesignSemiconductor Quantum DotsThermal ConductivityThermal Conductivity Enhancement
Data are presented on a new type of microcavity that uses epitaxial overgrowth to localize self-organized quantum dots in a microcavity optical mode. The all-epitaxial design eliminates free surfaces from the active material, eliminates quantum dots from the mirror and passive cavity regions, and provides a mechanically robust design with high thermal conductivity. The epitaxial overgrowth leads to a new type of lens-shaped microcavity, while the mesa confinement leads to lithographically defined placement of the quantum dots near the center of the optical mode.
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Resonance Absorption by Nuclear Magnetic Moments in a Solid
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