A four-wavelength silicon hybrid laser array operating at room temperature is realized by evanescently coupling the optical gain of InGaAsP multi-quantum wells to the silicon waveguides of varying widths and patterned with distributed feedback gratings based on selective-area metal bonding technology. The lasers have emission peaks between 1539.9 and 1546.1 nm with a wavelength spacing of about 2.0 nm. The single laser has a typical threshold current of 50 mA and side-mode suppression ratio of 20 dB. The silicon waveguides are fabricated simply by standard photolithography and holographic lithography which are CMOS compatible. ? 2014 Optical Society of America.EI55448-54542
Abstract Electrically pumped lasers that can be made on sili-con and integrated with other component...
Abstract—The silicon evanescent device platform provides elec-trically pumped active device function...
Abstract: We report an electrically pumped distributed feedback silicon evanescent laser. The laser...
A four-wavelength silicon hybrid laser array operating at room temperature is realized by evanescent...
We present the design and fabrication of a novel laser structure, the hybrid silicon evanescent lase...
A pulsed InGaAsP-Si hybrid laser is fabricated using metal bonding. A novel structure in which the o...
We present the design and fabrication of a novel laser structure, the hybrid silicon evanescent ...
We report a novel laser architecture, the silicon evanescent laser (SEL), that utilizes a silicon wa...
A pulsed InGaAsP-Si hybrid laser is fabricated using metal bonding. A novel structure in which the o...
A novel laser that utilizes a silicon waveguide bonded to AlGaInAs quantum wells is demonstrated. Th...
International audienceWith an ever-growing transmission data rate, electronic components reach a lim...
A 1.55-mu m InGaAsP-Si hybrid laser operating at 10 degrees C under continuous-wave operation is fab...
An evanescently-coupled, hybrid InGaAsP-Si laser operating at 1.55 ??m is presented by selective are...
Abstract: Optical amplifiers are important elements of photonic integrated circuits. We present a hy...
We report a novel laser architecture, the hybrid silicon evanescent laser (SEL), that utilizes offse...
Abstract Electrically pumped lasers that can be made on sili-con and integrated with other component...
Abstract—The silicon evanescent device platform provides elec-trically pumped active device function...
Abstract: We report an electrically pumped distributed feedback silicon evanescent laser. The laser...
A four-wavelength silicon hybrid laser array operating at room temperature is realized by evanescent...
We present the design and fabrication of a novel laser structure, the hybrid silicon evanescent lase...
A pulsed InGaAsP-Si hybrid laser is fabricated using metal bonding. A novel structure in which the o...
We present the design and fabrication of a novel laser structure, the hybrid silicon evanescent ...
We report a novel laser architecture, the silicon evanescent laser (SEL), that utilizes a silicon wa...
A pulsed InGaAsP-Si hybrid laser is fabricated using metal bonding. A novel structure in which the o...
A novel laser that utilizes a silicon waveguide bonded to AlGaInAs quantum wells is demonstrated. Th...
International audienceWith an ever-growing transmission data rate, electronic components reach a lim...
A 1.55-mu m InGaAsP-Si hybrid laser operating at 10 degrees C under continuous-wave operation is fab...
An evanescently-coupled, hybrid InGaAsP-Si laser operating at 1.55 ??m is presented by selective are...
Abstract: Optical amplifiers are important elements of photonic integrated circuits. We present a hy...
We report a novel laser architecture, the hybrid silicon evanescent laser (SEL), that utilizes offse...
Abstract Electrically pumped lasers that can be made on sili-con and integrated with other component...
Abstract—The silicon evanescent device platform provides elec-trically pumped active device function...
Abstract: We report an electrically pumped distributed feedback silicon evanescent laser. The laser...