Selective-area growth and regrowth by conventional atmospheric pressure MOCVD has been used to fabricate a monolithically integrated strained-layer InGaAs-GaAs-AlGaAs quantum-well laser and waveguide. Growth inhibition from a silicon dioxide mask is the mechanism used for selective-area growth rate enhancement. Variation in the width of the oxide stripe opening along the length of the device results in different quantum-well thicknesses, allowing the light generated in one selective growth region to propagate without significant absorption loss in an adjacent passive waveguide region.X114sciescopu
The passive sections of a monolithic device must have a wider bandgap than the active regions to red...
The bandgap of InGaAs-InGaAsP multiple-quantum well (MQW) material can be accurately tuned by photo-...
Abstract: An InGaAs quantum-dot (QD) laser integrated with a low-loss waveguide is demonstrated. Se...
95 p.Thesis (Ph.D.)--University of Illinois at Urbana-Champaign, 1993.This thesis describes several ...
In this thesis we discuss the advantage of the selective area growth (SAG) approach to manufacturing...
A novel technique for quantum-well intermixing is demonstrated, which has proven a reliable means fo...
We present the design and operation of an InGaAs quantumdot laser integrated with a passive waveguid...
AbstractThe passive sections of a monolithic device must have a wider bandgap than the active region...
In this work, we report the use of dielectric capping layer of TiO 2 to selectively suppress thermal...
The narrow stripe selective growth of the InGaAlAs bulk waveguides and InGaAlAs MQW waveguides was f...
The bandgap of InGaAs-InGaAsP multiple-quantum well (MQW) material can be accurately tuned by photo-...
A technique, based on quantum well (QW) intermixing, has been developed for the post growth, spatial...
AbstractThe passive sections of a monolithic device must have a wider bandgap than the active region...
The passive sections of a monolithic device must have a wider bandgap than the active regions to red...
The bandgap of InGaAs-InGaAsP multiple-quantum-well (MQW) material can be accurately tuned by photoa...
The passive sections of a monolithic device must have a wider bandgap than the active regions to red...
The bandgap of InGaAs-InGaAsP multiple-quantum well (MQW) material can be accurately tuned by photo-...
Abstract: An InGaAs quantum-dot (QD) laser integrated with a low-loss waveguide is demonstrated. Se...
95 p.Thesis (Ph.D.)--University of Illinois at Urbana-Champaign, 1993.This thesis describes several ...
In this thesis we discuss the advantage of the selective area growth (SAG) approach to manufacturing...
A novel technique for quantum-well intermixing is demonstrated, which has proven a reliable means fo...
We present the design and operation of an InGaAs quantumdot laser integrated with a passive waveguid...
AbstractThe passive sections of a monolithic device must have a wider bandgap than the active region...
In this work, we report the use of dielectric capping layer of TiO 2 to selectively suppress thermal...
The narrow stripe selective growth of the InGaAlAs bulk waveguides and InGaAlAs MQW waveguides was f...
The bandgap of InGaAs-InGaAsP multiple-quantum well (MQW) material can be accurately tuned by photo-...
A technique, based on quantum well (QW) intermixing, has been developed for the post growth, spatial...
AbstractThe passive sections of a monolithic device must have a wider bandgap than the active region...
The passive sections of a monolithic device must have a wider bandgap than the active regions to red...
The bandgap of InGaAs-InGaAsP multiple-quantum-well (MQW) material can be accurately tuned by photoa...
The passive sections of a monolithic device must have a wider bandgap than the active regions to red...
The bandgap of InGaAs-InGaAsP multiple-quantum well (MQW) material can be accurately tuned by photo-...
Abstract: An InGaAs quantum-dot (QD) laser integrated with a low-loss waveguide is demonstrated. Se...