Title :
Strained-layer InGaAs quantum-well heterostructure lasers
Author_Institution :
Dept. of Electr. & Comput. Eng., Illinois Univ., Urbana, IL, USA
Abstract :
The incorporation of intentional strain in heterostructure lasers was almost unheard of a decade ago or so and considered a problem to be avoided. Advances in both epitaxial crystal growth technology and the understanding of the physics and reliability of these materials have led to a remarkable increase in the commercial use of strained-layer lasers. The industry has benefited from an increase in the available range of emission wavelengths from quantum-well diode lasers and dramatic improvement in their time-zero performance. In the paper, we review the characteristics of strained-layer InGaAs quantum-well heterostructure lasers that have resulted in the emergence of this important technology.
Keywords :
III-V semiconductors; gallium arsenide; indium compounds; laser beams; laser reliability; quantum well lasers; reviews; semiconductor device reliability; InGaAs; commercial use; emission wavelengths; epitaxial crystal growth technology; heterostructure lasers; intentional strain; laser industry; physics; quantum-well diode lasers; quantum-well heterostructure lasers; reliability; review; strained-layer lasers; strained-layer quantum-well heterostructure lasers; time-zero performance; Capacitive sensors; Crystalline materials; Diode lasers; Indium gallium arsenide; Laser theory; Materials reliability; Optical materials; Paper technology; Physics; Quantum well lasers;
Journal_Title :
Selected Topics in Quantum Electronics, IEEE Journal of
DOI :
10.1109/2944.902149