DocumentCode
814417
Title
Circuit theory of laser diode modulation and noise
Author
Arnaud, J. ; Estéban, M.
Author_Institution
Montpellier Univ., France
Volume
137
Issue
1
fYear
1990
fDate
2/1/1990 12:00:00 AM
Firstpage
55
Lastpage
63
Abstract
The circuit theory of laser diode modulation and noise is based only on the energy and electron-number conservation laws, and on the well known expression hv (G b+G a) for the spectral density of Nyquist noise currents. The conductances G b and G a represent stimulated absorption and stimulated emission, respectively. This theory leads to results that are in exact agreement with the predictions of quantum optics, even in the case of electronic feedback and non-classical states of light, but the optical field is not quantised. The theory is presented in a general form, applicable to arbitrary optical and electrical configurations, but is exemplified for only a single active element model of laser diode. For independent electron-hole injection, the results are the same as those obtained from standard rate equations, except for a phase-noise term. Important differences do occur for more realistic laser models
Keywords
circuit theory; electron device noise; laser theory; optical modulation; semiconductor device models; semiconductor junction lasers; Nyquist noise currents; circuit theory; conductances; electron-hole injection; electron-number conservation laws; energy conservation law; laser diode modulation; noise; phase-noise term; single active element model; spectral density; stimulated absorption; stimulated emission;
fLanguage
English
Journal_Title
Optoelectronics, IEE Proceedings J
Publisher
iet
ISSN
0267-3932
Type
jour
Filename
45774
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