Progress in Multichannel All-Optical Regeneration Based on Fiber Technology

Typeset version

 

TY  - JOUR
  - Parmigiani, F,Provost, L,Petropoulos, P,Richardson, DJ,Freude, W,Leuthold, J,Ellis, AD,Tomkos, I
  - 2012
  - January
  - IEEE Journal of Selected Topics In Quantum Electronics
  - Progress in Multichannel All-Optical Regeneration Based on Fiber Technology
  - Validated
  - ()
  - Kerr effect nonlinear optical devices nonlinear optical signal processing signal regeneration ultrafast processes in fibers PHASE-SENSITIVE AMPLIFICATION AMPLIFYING LOOP MIRROR 2R REGENERATION AMPLITUDE REGENERATION WAVELENGTH CONVERSION WDM TRANSMISSION GBIT/S SIGNALS SOLITONS DEVICE
  - 18
  - 689
  - 700
  - Multiwavelength all-optical regeneration has the potential to substantially increase both the capacity and scalability of future optical networks. In this paper, we review recent promising developments in this area. First, we recall the basic principles of multichannel regeneration of high bit rate signals in optical communication systems before discussing the current technological approaches. We then describe in detail two fiber-based multichannel 2R regeneration techniques for return-to-zero-on-off keying based on 1) dispersion managed systems and 2) direction and polarization multiplexing. We present results illustrating the levels of performance so far achieved and discuss various practical issues and prospects for further performance enhancement.
  - DOI 10.1109/JSTQE.2011.2126040
DA  - 2012/01
ER  - 
@article{V146554713,
   = {Parmigiani,  F and Provost,  L and Petropoulos,  P and Richardson,  DJ and Freude,  W and Leuthold,  J and Ellis,  AD and Tomkos,  I },
   = {2012},
   = {January},
   = {IEEE Journal of Selected Topics In Quantum Electronics},
   = {Progress in Multichannel All-Optical Regeneration Based on Fiber Technology},
   = {Validated},
   = {()},
   = {Kerr effect nonlinear optical devices nonlinear optical signal processing signal regeneration ultrafast processes in fibers PHASE-SENSITIVE AMPLIFICATION AMPLIFYING LOOP MIRROR 2R REGENERATION AMPLITUDE REGENERATION WAVELENGTH CONVERSION WDM TRANSMISSION GBIT/S SIGNALS SOLITONS DEVICE},
   = {18},
  pages = {689--700},
   = {{Multiwavelength all-optical regeneration has the potential to substantially increase both the capacity and scalability of future optical networks. In this paper, we review recent promising developments in this area. First, we recall the basic principles of multichannel regeneration of high bit rate signals in optical communication systems before discussing the current technological approaches. We then describe in detail two fiber-based multichannel 2R regeneration techniques for return-to-zero-on-off keying based on 1) dispersion managed systems and 2) direction and polarization multiplexing. We present results illustrating the levels of performance so far achieved and discuss various practical issues and prospects for further performance enhancement.}},
   = {DOI 10.1109/JSTQE.2011.2126040},
  source = {IRIS}
}
AUTHORSParmigiani, F,Provost, L,Petropoulos, P,Richardson, DJ,Freude, W,Leuthold, J,Ellis, AD,Tomkos, I
YEAR2012
MONTHJanuary
JOURNAL_CODEIEEE Journal of Selected Topics In Quantum Electronics
TITLEProgress in Multichannel All-Optical Regeneration Based on Fiber Technology
STATUSValidated
TIMES_CITED()
SEARCH_KEYWORDKerr effect nonlinear optical devices nonlinear optical signal processing signal regeneration ultrafast processes in fibers PHASE-SENSITIVE AMPLIFICATION AMPLIFYING LOOP MIRROR 2R REGENERATION AMPLITUDE REGENERATION WAVELENGTH CONVERSION WDM TRANSMISSION GBIT/S SIGNALS SOLITONS DEVICE
VOLUME18
ISSUE
START_PAGE689
END_PAGE700
ABSTRACTMultiwavelength all-optical regeneration has the potential to substantially increase both the capacity and scalability of future optical networks. In this paper, we review recent promising developments in this area. First, we recall the basic principles of multichannel regeneration of high bit rate signals in optical communication systems before discussing the current technological approaches. We then describe in detail two fiber-based multichannel 2R regeneration techniques for return-to-zero-on-off keying based on 1) dispersion managed systems and 2) direction and polarization multiplexing. We present results illustrating the levels of performance so far achieved and discuss various practical issues and prospects for further performance enhancement.
PUBLISHER_LOCATION
ISBN_ISSN
EDITION
URL
DOI_LINKDOI 10.1109/JSTQE.2011.2126040
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