Monolithic lasers on Si are ideal for high-volume and large-scale electronic–photonic integration. Ge is an interesting candidate owing to its pseudodirect gap properties and compatibility with Si complementary metal oxide semiconductor technology. Recently we have demonstrated room-temperature photoluminescence, electroluminescence, and optical gain from the direct gap transition of band-engineered Ge-on-Si using tensile strain and n-type doping. Here we report what we believe to be the first experimental observation of lasing from the direct gap transition of Ge-on-Si at room temperature using an edge-emitting waveguide device. The emission exhibited a gain spectrum of 1590–1610 nm, line narrowing and polarization evolution from a mixed T...
The semiconductor industry has been pushing silicon photonics development for many years, resulting ...
A complementary metal-oxide semiconductor compatible on-chip light source is the holy grail of silic...
Thesis (Ph. D.)--Massachusetts Institute of Technology, Dept. of Materials Science and Engineering, ...
Lasers on Si are crucial components of monolithic electronic–photonic integration. Recently our theo...
We demonstrate room temperature photoluminescence and optical gain from the direct band gap transiti...
We report optically-pumped Ge-on-Si lasers with direct gap emission near 1600 nm at room temperature...
We report direct band gap optical gain of tensile strained n+ epitaxial Ge-on-Si at room temperature...
We report room temperature Ge-on-Si lasers with direct gap emission at 1590-1610 nm. Modeling of Ge/...
We present theoretical modeling and experimental results of optical gain and lasing from tensile-str...
We report what we believe to be the first demonstration of direct bandgap electroluminescence (EL) f...
It has been demonstrated theoretically and experimentally that germanium, with proper strain enginee...
The recent demonstration of Ge-on-Si diode lasers renews the interest in the unique carrier dynamics...
Thesis: Ph. D., Massachusetts Institute of Technology, Department of Materials Science and Engineeri...
Room temperature direct gap photoluminescence (PL) was observed from n-type tensile-strained epitaxi...
Silicon technology shaped the digital world surrounding us in just a few decades. Our electronic dev...
The semiconductor industry has been pushing silicon photonics development for many years, resulting ...
A complementary metal-oxide semiconductor compatible on-chip light source is the holy grail of silic...
Thesis (Ph. D.)--Massachusetts Institute of Technology, Dept. of Materials Science and Engineering, ...
Lasers on Si are crucial components of monolithic electronic–photonic integration. Recently our theo...
We demonstrate room temperature photoluminescence and optical gain from the direct band gap transiti...
We report optically-pumped Ge-on-Si lasers with direct gap emission near 1600 nm at room temperature...
We report direct band gap optical gain of tensile strained n+ epitaxial Ge-on-Si at room temperature...
We report room temperature Ge-on-Si lasers with direct gap emission at 1590-1610 nm. Modeling of Ge/...
We present theoretical modeling and experimental results of optical gain and lasing from tensile-str...
We report what we believe to be the first demonstration of direct bandgap electroluminescence (EL) f...
It has been demonstrated theoretically and experimentally that germanium, with proper strain enginee...
The recent demonstration of Ge-on-Si diode lasers renews the interest in the unique carrier dynamics...
Thesis: Ph. D., Massachusetts Institute of Technology, Department of Materials Science and Engineeri...
Room temperature direct gap photoluminescence (PL) was observed from n-type tensile-strained epitaxi...
Silicon technology shaped the digital world surrounding us in just a few decades. Our electronic dev...
The semiconductor industry has been pushing silicon photonics development for many years, resulting ...
A complementary metal-oxide semiconductor compatible on-chip light source is the holy grail of silic...
Thesis (Ph. D.)--Massachusetts Institute of Technology, Dept. of Materials Science and Engineering, ...