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J P Turkiewicz,
E Tangdiongga,
G Lehmann, H Rohde,
W Schairer,
Y R Zhou,
E S R Sikora,
A Lord,
D B Payne,
G D Khoe,
H De Waardt
[show abstract]
[hide abstract]
ABSTRACT: We report a 160 Gb/s OTDM network comprising switching and demultiplexing through field deployed fiber. The 160 Gb/s signal was obtained by time-interleaving 16 channels of a 10 Gb/s signal. The add-drop node was realized by using a gain-transparent operation of a semiconductor optical amplifier (SOA). A subharmonic clock recovery with a pre-scaled electro-optical phase locked loop employing an electroabsorption modulator was applied. An OTDM receiver employed a four-wave mixing principle in an SOA. The impact of fiber chromatic and polarization mode dispersion is discussed. Switching and demultiplexing performance are shown for a fiber link of 275 and 550 km, respectively. Excellent operation of clock recovery, drop-through-add function, and transmission was achieved.
; 23.
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J.P. Turkiewicz,
E. Tangdiongga,
G. Lehmann, H. Rohde,
W. Schairer,
Y.R. Zhou,
E.S.R. Sikora,
A. Lord,
D.B. Payne,
G.D. Khoe,
H. de Waardt
[show abstract]
[hide abstract]
ABSTRACT: This paper reports a 160-Gb/s OTDM network comprising switching and demultiplexing through field deployed fiber. The 160-Gb/s signal was obtained by time-interleaving 16 channels of a 10-Gb/s signal. The add-drop node was realized by using a gain-transparent operation of a semiconductor optical amplifier (SOA). A subharmonic clock recovery with a prescaled electrooptical phase locked loop employing an electroabsorption modulator was applied. An OTDM receiver employed a four-wave mixing principle in an SOA. The impact of fiber chromatic and polarization-mode dispersion (PMD) is discussed. Switching and demultiplexing performance are shown for a fiber link of 275 and 550 km, respectively. Excellent operation of clock recovery, drop-through-add function, and transmission was achieved.
Journal of Lightwave Technology 02/2005; 23(1):225- 235. · 2.78 Impact Factor
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[show abstract]
[hide abstract]
ABSTRACT: The first demonstration of automatic dispersion control suitable for ultra-high-speed 160 Gbit/s transmission over field-deployed fibre is described. Results illustrate the need for adaptive compensation to achieve reliable data transmission at this speed.
Electronics Letters 06/2004; · 0.96 Impact Factor
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E. Tangdiongga,
J.P. Turkiewicz, H. Rohde,
W. Schairer,
G. Lehmann,
E.S.R. Sikora,
Y.R. Zhou,
A. Lord,
D. Payne,
G.D. Khoe,
H. de Waardt
[show abstract]
[hide abstract]
ABSTRACT: A field-installed 160 Gbit/s OTDM network comprising an OTDM add-drop node placed between two existing fibre links is demonstrated. An excellent performance of signal transmission, subharmonic clock recovery, and add-drop function is reported.
Electronics Letters 05/2004; · 0.96 Impact Factor
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[show abstract]
[hide abstract]
ABSTRACT: The authors describe the excellent capability of an all-optical gain-transparent ultrafast nonlinear interferometer (GT-UNI) in dropping, passing through, and adding optical time domain multiplexing (OTDM) channels. Error free operation without significant penalties of a complete OTDM add-drop node at 80 Gbit/s was achieved.
Electronics Letters 06/2003; · 0.96 Impact Factor
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J P Turkiewicz,
E Tangdiongga,
G D Khoe,
H De Waardt,
W Schairer, H Rohde,
G Lehmann,
E S R Sikora,
Y R Zhou,
A Lord,
D Payne
[show abstract]
[hide abstract]
ABSTRACT: We demonstrate a 160Gbit/s OTDM add/drop network comprising an OTDM add/drop node placed in a link of 275 km field deployed fiber. Excellent operation of clock recovery, drop/through/add functions, and transmission is reported.
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G Lehmann, H Rohde,
W Schairer,
J P Turkiewicz,
E Tangdiongga,
G D Khoe,
H De Waardt,
E S R Sikora,
Y R Zhou,
A Lord,
D Payne
[show abstract]
[hide abstract]
ABSTRACT: Future optical networks will be meshed and transparent. Going towards high-speed optical networks with data rates above 40 Gbit/s per wavelength, optical time domain multiplexing (OTDM) techniques will be applied. Such OTDM networks give rise to a couple of challenges concerning the architecture of add-/drop nodes and optical cross connects. We present a concept for an architecture of an OTDM add-/drop multiplexer and show potential applications. First experimental results proving the feasibility of the OTDM network technology are presented.