We apply artificial shape engineering of epitaxial semiconductor nanostructures to demonstrate InGaAs quantum rods (QRs), nanocandles, and quantum dots-in-rods on a GaAs substrate. The evolution of the QRs from a zero-dimensional to one-dimensional confinement is evidenced by systematically measuring the photoluminescence and photoluminescence decay as a function of the rod length. Lasers based on a three-stack QR active region are demonstrated at room temperature, validating the applicability of the QRs in the real devices. ©2008 American Institute of Physic
Three-dimensional confinement of carriers eliminates the problem of thermal spreading of carriers ob...
This thesis presents my research at the interface of material science, engineering and physics. The ...
Microphotoluminescence (µ-PL) experiment has been performed on a structure with InGaAs/GaAs epitaxia...
We apply artificial shape engineering of epitaxial semiconductor nanostructures to demonstrate InGaA...
International audienceWe demonstrate the feasibility and flexibility of artificial shape engineering...
We demonstrate the feasibility and flexibility of artificial shape engineering of epitaxial semicond...
The epitaxial growth of quantum rods (QRs) on GaAs was investigated. It was found that GaAs thicknes...
InGaAs quantum dots (QDs) and nanowires have been grown on GaAs by metal-organic chemical vapour dep...
This paper discusses the growth and the properties of semiconductor nanostructures based on self-ass...
This paper reviews our work on controlled growth of self-assembled semiconductor nanostructures, and...
Breakthroughs in nanomaterials and nanoscience enable the development of novel photonic devices and ...
Three-dimensional confinement of carriers eliminates the problem of thermal spreading of carriers ob...
This thesis presents my research at the interface of material science, engineering and physics. The ...
Microphotoluminescence (µ-PL) experiment has been performed on a structure with InGaAs/GaAs epitaxia...
We apply artificial shape engineering of epitaxial semiconductor nanostructures to demonstrate InGaA...
International audienceWe demonstrate the feasibility and flexibility of artificial shape engineering...
We demonstrate the feasibility and flexibility of artificial shape engineering of epitaxial semicond...
The epitaxial growth of quantum rods (QRs) on GaAs was investigated. It was found that GaAs thicknes...
InGaAs quantum dots (QDs) and nanowires have been grown on GaAs by metal-organic chemical vapour dep...
This paper discusses the growth and the properties of semiconductor nanostructures based on self-ass...
This paper reviews our work on controlled growth of self-assembled semiconductor nanostructures, and...
Breakthroughs in nanomaterials and nanoscience enable the development of novel photonic devices and ...
Three-dimensional confinement of carriers eliminates the problem of thermal spreading of carriers ob...
This thesis presents my research at the interface of material science, engineering and physics. The ...
Microphotoluminescence (µ-PL) experiment has been performed on a structure with InGaAs/GaAs epitaxia...