Modeled optimization and experimental verification of a low-dispersion source for long-haul 2.488-Gbit/s systems

Stephen M. Gee; Herbert Lage; Chris Park; Kevin A. Williams; Richard V. Penty; Ian H. White; Joseph A. Barnard

Modeled optimization and experimental verification of a low-dispersion source for long-haul 2.488-Gbit/s systems

Stephen M. Gee, Herbert Lage, Chris Park, Kevin A. Williams, Richard V. Penty, Ian H. White, Joseph A. Barnard

Vice Chancellor's Office

Research output: Contribution to journal › Article › peer-review

2 Citations (SciVal)

Abstract

The HP LSC2500 2.488-Gbit/s DFB laser diode module has been successfully developed using microwave, laser and fiber models. These models accurately predicted the microwave s-parameters of the laser module and therefore the electrical signal reaching the laser diode. Knowing the electrical signal to the laser, the optical output has been predicted, which leads to the wavelength chirp and therefore the dispersion penalty over long lengths of single-mode fiber at 1550 nm. The predicted optical pulse shapes both before and after the fiber agree closely with the experimental results.

Original language	English
Pages (from-to)	86-101
Number of pages	16
Journal	Hewlett-Packard Journal
Volume	48
Issue number	5
Publication status	Published - 1 Dec 1997

ASJC Scopus subject areas

Instrumentation
Hardware and Architecture
Electrical and Electronic Engineering

Cite this

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title = "Modeled optimization and experimental verification of a low-dispersion source for long-haul 2.488-Gbit/s systems",

abstract = "The HP LSC2500 2.488-Gbit/s DFB laser diode module has been successfully developed using microwave, laser and fiber models. These models accurately predicted the microwave s-parameters of the laser module and therefore the electrical signal reaching the laser diode. Knowing the electrical signal to the laser, the optical output has been predicted, which leads to the wavelength chirp and therefore the dispersion penalty over long lengths of single-mode fiber at 1550 nm. The predicted optical pulse shapes both before and after the fiber agree closely with the experimental results.",

author = "Gee, {Stephen M.} and Herbert Lage and Chris Park and Williams, {Kevin A.} and Penty, {Richard V.} and White, {Ian H.} and Barnard, {Joseph A.}",

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AU - Gee, Stephen M.

AU - Lage, Herbert

AU - Park, Chris

AU - Williams, Kevin A.

AU - Penty, Richard V.

AU - White, Ian H.

AU - Barnard, Joseph A.

PY - 1997/12/1

Y1 - 1997/12/1

N2 - The HP LSC2500 2.488-Gbit/s DFB laser diode module has been successfully developed using microwave, laser and fiber models. These models accurately predicted the microwave s-parameters of the laser module and therefore the electrical signal reaching the laser diode. Knowing the electrical signal to the laser, the optical output has been predicted, which leads to the wavelength chirp and therefore the dispersion penalty over long lengths of single-mode fiber at 1550 nm. The predicted optical pulse shapes both before and after the fiber agree closely with the experimental results.

AB - The HP LSC2500 2.488-Gbit/s DFB laser diode module has been successfully developed using microwave, laser and fiber models. These models accurately predicted the microwave s-parameters of the laser module and therefore the electrical signal reaching the laser diode. Knowing the electrical signal to the laser, the optical output has been predicted, which leads to the wavelength chirp and therefore the dispersion penalty over long lengths of single-mode fiber at 1550 nm. The predicted optical pulse shapes both before and after the fiber agree closely with the experimental results.

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AN - SCOPUS:0031356161

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ER -

Modeled optimization and experimental verification of a low-dispersion source for long-haul 2.488-Gbit/s systems

Abstract

ASJC Scopus subject areas

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