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Dive into the research topics where Thomas John Miller is active.

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Featured researches published by Thomas John Miller.


High-speed semiconductor lasers for communication. Conference | 1997

High-speed integrated electroabsorption modulators

J.E. Johnson; Paul A. Morton; Yong-Kwan Park; Leonard Jan-Peter Ketelsen; Judith A. Grenko; Thomas John Miller; Sharon Kay Sputz; T. Tanbun-Ek; J. M. Vandenberg; R. D. Yadvish; Thomas R. Fullowan; Paul F. Sciortino; A. M. Sergent; W. T. Tsang

The explosive growth in internet, multimedia and wireless traffic in recent years is rapidly exhausting capacity in public networks worldwide, forcing network service providers to aggressively install new lines and upgrade old ones. Fortunately, technological breakthroughs in the areas of erbium-doped fiber amplifiers (EDFAs), passive wavelength demultiplexers and low chirp sources have made all-optical dense wavelength-division multiplexed (WDM) systems a cost- effective way to utilize the vast bandwidth already available in the embedded fiber plant. WDM systems offer additional operational advantages, including high ultimate capacity, bit-rate transparency, flexible growth strategies, and the potential to use all-optical wavelength routing in future broadband network architectures. Commercial WDM systems operating at the OC-48 (2.5 Gbit/s) line rate are now available, and OC-192 (10 Gbit/s) terminal equipment which is under development will further enhance the capacity of these systems. One of the keys to viable WDM systems is the availability of inexpensive low-chirp optical transmitters. By taking advantage of photonic integrated circuit technology, it is possible to produce monolithically integrated DFB laser/EA modulators (EMLs) with low chirp, low drive voltage and high extinction ratio, in a single compact package. In this talk we discuss the operating characteristics of these devices and their relationship to WDM system performance.


Archive | 1997

Method of making a fiber having low loss at 1385 nm by cladding a VAD preform with a D/d<7.5

Kai Huei Chang; David Kalish; Thomas John Miller; Michael L. Pearsall


Archive | 1998

Method of fabricating an optical fibre having low loss at 1385 nm

Kai Huei Chang; David Kalish; Thomas John Miller; Michael L. Pearsal


Archive | 2001

Method and apparatus for fabricating optical fiber using improved oxygen stoichiometry and deuterium exposure

Kai H. Chang; David Kalish; Thomas John Miller


Archive | 2001

Method of making an optical fiber using preform dehydration in an environment of chlorine-containing gas, fluorine-containing gases and carbon monoxide

Kai H. Chang; David Kalish; Thomas John Miller


Archive | 1998

Optical fiber having low loss at 1,385 nanometer and its production

Kai Huei Chang; David Kalish; Thomas John Miller; Michael L. Pearsall; フエイ チャン カイ; カリシュ ディヴィッド; ジョン ミラー トーマス; エル.ピアサル マイケル


Archive | 2003

Method and apparatus for fabricating optical fiber using deuterium exposure

Kai H. Chang; David Kalish; Thomas John Miller


Archive | 2001

Method and apparatus for fabricating optical fiber using adjustment of oxygen stoichiometry

Kai H. Chang; David Kalish; Thomas John Miller


Archive | 2004

Thermally stabilized sensors for cooled electrical packages

J. M. Geary; J.E. Johnson; Len Ketelsen; David J. Lischner; Thomas John Miller


Archive | 2003

Method for fabricating optical fiber using deuterium exposure

Kai H. Chang; David Kalish; Thomas John Miller

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