Abstract
Optical amplifiers are essential devices in optical networks to recover the signals degraded from passive optical components attenuations such as fiber span and optical switches. However, optical amplifiers, usually based on erbium-doped fiber, are also the main noise contributors, reducing the signal quality. Given that noise depends on the amplifiers’ operating point, it is desirable to find their best operating point which may lead to the lowest degradation of the optical signal. In this work, we evaluate our proposed cognitive methodology for optical amplifier gain adjustment, relied on case-based reasoning. Realistic scenarios are considering, exploring networks with different number of amplifiers and span lengths per link. The results show an optical signal-to-noise ratio improvement when the cognitive methodology is applied for most cases, demonstrating the methodology robustness for networks with different characteristics in terms of topology and size.
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References
Moura U, Garrich M, Carvalho H, Svolenski M, Andrade A, Cesar AC, Oliveira J, Conforti E (2016) Cognitive methodology for optical amplifier gain adjustment in dynamic dwdm networks. J Lightwave Technol 34:1971–1979
Reis JD, Garrich M, Pataca DM, Diniz JCM, Rozental VN, Carvalho LHH, Magalhes EC, Moura U, Gonzalez NG, Oliveira JRF, Oliveira JCRF (2014) Flexible optical transmission systems for future networking. In: Telecommunications network strategy and planning symposium (networks), 2014 16th international, pp 1–6
Cugini F, Meloni G, Paolucci F, Sambo N, Secondini M, Gerardi L, Poti L, Castoldi P (2012) Demonstration of flexible optical network based on path computation element. J Lightwave Technol 30:727–733
Franciscangelis C, Carvalho LHH, Reis JD, Parahyba VE, Simes FD, Pataca DM, Rosa ES, Rozental VN, Oliveira JRF, Gonzalez NG, Oliveira JCRF (2014) Network survivability field trial over brazilian legacy optical fiber links through advanced transponder reconfiguration. In: 2014 the European conference on optical communication (ECOC), pp 1–3
Carvalho LHH, Franciscangelis C, Duarte UR, Rozental VN, Reis JD, Fideles FB, Suzigan GJ, Simes FD, Parahyba VE, Gonzalez NG, Bordonalli AC, Oliveira JCRF (2014) Multidimensional optimization of optical spectral shaping for fiber nonlinearities mitigation in high baud-rate systems. In: 2014 the European conference on optical communication (ECOC), pp 1–3
de AS Diniz C, Garrich M, Suzigan GJ, Assine JS, Reis JD, de Oliveira JRF, Mello DAA (2015) Embedded system for optical spectral optimization based on a genetic algorithm. In: Microwave and optoelectronics conference (IMOC), 2015 SBMO/IEEE MTT-S international, pp 1–4
Choi HY, Liu L, Tsuritani T, Morita I (2013) Demonstration of ber-adaptive wson employing flexible transmitter/receiver with an extended openflow-based control plane. IEEE Photon Technol Lett 25(2):119–121
Magalhães E, Garrich M, Carvalho H, Magalhães M, González N, Oliveira J, Bordonalli A, Oliveira J (2014) Global wss-based equalization strategies for sdn metropolitan mesh optical networks. In: European conference on optical communications (ECOC)
Wang X, Fei Y, Razo M, Fumagalli A, Garrich M (2015) Network-wide signal power control strategies in wdm networks. In: 2015 international conference on optical network design and modeling (ONDM). IEEE, pp 218–221
Nascimento VV, de Oliveira JC, Ribeiro VB, Bordonalli AC (2011) Dynamic gain equalization for erbium doped fiber amplifiers based on optoceramic sinusoidal filter cascade. Microw Opt Technol Lett 53(3):623–626
de Moura UC, Oliveira JR, Oliveira JCR, Cesar AC (2013) Edfa adaptive gain control effect analysis over an amplifier cascade in a dwdm optical system. In: Microwave and optoelectronics conference (IMOC), 2013 SBMO/IEEE MTT-S international. IEEE, pp 1–5
Barboza DA, Bastos-Filho CJ, Martins-Filho JF, de Moura UC, de Oliveira JR et al (2013) Self-adaptive erbium-doped fiber amplifiers using machine learning. In: Microwave optoelectronics conference (IMOC), 2013 SBMO/IEEE MTT-S international. IEEE, pp 1–5
Oliveira JR, Caballero A, Magalhães E, Moura U, Borkowski R, Curiel G, Hirata A, Hecker L, Porto E, Zibar D et al (2013) Demonstration of edfa cognitive gain control via gmpls for mixed modulation formats in heterogeneous optical networks. In: Optical fiber communication conference. Optical Society of America, pp OW1H–2
Zervas GS, Simeonidou D (2010) Cognitive optical networks: need, requirements and architecture. In: 2010 12th international conference on transparent optical networks (ICTON). IEEE, pp 1–4
Mahmoud QH (2007) Front matter. Wiley, pp i–xxxii
Thomas RW, Friend DH, DaSilva L, Mackenzie AB et al (2006) Cognitive networks: adaptation and learning to achieve end-to-end performance objectives. IEEE Commun Mag 44(12):51–57
Monroy IT, Zibar D, Gonzalez NG, Borkowski R (2011) Cognitive heterogeneous reconfigurable optical networks (chron): enabling technologies and techniques. In: Proceedings of ICTON, vol 11
Wei W, Wang C, Yu J (2012) Cognitive optical networks: key drivers, enabling techniques, and adaptive bandwidth services. IEEE Commun Mag 50(1):106–113
Siracusa D, Salvadori E, Francescon A, Zanardi A, Angelou M, Klonidis D, Tomkos I, Sánchez D, Durán R, de Miguel I (2012) A control plane framework for future cognitive heterogeneous optical networks. In: 2012 14th international conference on transparent optical networks (ICTON). IEEE, pp 1–4
Tronco TR, Feres MM, César AC, de Lacerda Rocha M (2013) Self-configuration and self-healing for cognitive optical networks. J Microw Optoelectron Electromagn Appl (JMOe) 12:193–205
Tronco TR, Garrich M, César AC, Rocha MDL (2016) Cognitive algorithm using fuzzy reasoning for software-defined optical network. Photon Netw Commun 32(2):281–292
Rodríguez I, Durán RJ, Siracusa D, de Miguel I, Francescon A, Aguado JC, Salvadori E, Lorenzo RM (2013) Minimization of the impact of the ted inaccuracy problem in pce-based networks by means of cognition. In: 39th European conference and exhibition on optical communication (ECOC 2013). IET, pp 1–3
Zervas G, Banias K, Rofoee BR, Amaya N, Simeonidou D (2012) Multi-core, multi-band and multi-dimensional cognitive optical networks: an architecture on demand approach. In: 2012 14th international conference on transparent optical networks (ICTON). IEEE, pp 1–4
Jiménez T, de Miguel I, Aguado J, Durán R, Merayo N, Fernández N, Sánchez D, Fernández P, Atallah N, Abril E et al (2011) Case-based reasoning (cbr) to estimate the q-factor in optical networks: an initial approach. In: 2011 16th European conference on networks and optical communications (NOC). IEEE, pp 181–184
Jiménez T, Aguado JC, de Miguel I, Durán RJ, Fernandez N, Angelou M, Sánchez D, Merayo N, Fernández P, Atallah N et al (2012) A cognitive system for fast quality of transmission estimation in core optical networks. In: Optical fiber communication conference. Optical Society of America, pp OW3A–5
Jiménez T, Aguado JC, De Miguel I, Durán RJ, Fernández N, Angelou M, Sánchez D, Merayo N, Fernández P, Atallah N et al (2012) Enhancing optical networks with cognition: case-based reasoning to estimate the quality of transmission. In: 2012 IEEE international multi-disciplinary conference on cognitive methods in situation awareness and decision support (CogSIMA). IEEE, pp 166–169
Caballero A, Aguado JC, Borkowski R, Saldaña S, Jiménez T, de Miguel I, Arlunno V, Durán RJ, Zibar D, Jensen JB et al (2012) Experimental demonstration of a cognitive quality of transmission estimator for optical communication systems. Opt Expr 20(26):B64–B70
Jiménez T, Aguado JC, de Miguel I, Durán RJ, Angelou M, Merayo N, Fernández P, Lorenzo RM, Tomkos I, Abril EJ (2013) A cognitive quality of transmission estimator for core optical networks. J Lightwave Technol 31(6):942–951
Caballero A, Borkowski R, Zibar D, Monroy IT (2013) Performance monitoring techniques supporting cognitive optical networking. In: 2013 15th international conference on transparent optical networks (ICTON). IEEE, pp 1–4
Borkowski R, Caballero A, Klonidis D, Kachris C, Francescon A, de Miguel I, Barroso RJD, Zibar D, Tomkos I, Tafur I (2014) Advanced modulation formats in cognitive optical networks: EU project chron demonstration. In: Optical fiber communication conference. Optical Society of America, pp W3H–1
Borkowski R, Durán RJ, Kachris C, Siracusa D, Caballero A, Fernández N, Klonidis D, Francescon A, Jiménez T, Aguado JC et al (2015) Cognitive optical network testbed: EU project chron [invited]. J Opt Commun Netw 7(2):A344–A355
Duran R, Fernandez N, de Miguel I, Angelou M, Sánchez D, Aguado J, Jiménez T, Fernandez P, Merayo N, Atallah N et al (2011) Advantages of using cognition when solving impairment-aware virtual topology design problems. In: 2011 13th international conference on transparent optical networks (ICTON). IEEE, pp 1–4
Fernández N, Durán RJ, De Miguel I, Aguado JC, Jiménez T, Angelou M, Sánchez D, Fernández P, Merayo N, Atallah N et al (2012) Cognitive algorithm to solve the impairment-aware virtual topology design problem in reconfigurable optical networks. In: 2012 IEEE international multi-disciplinary conference on cognitive methods in situation awareness and decision support (CogSIMA). IEEE, pp 170–173
Tomkos I, Angelou M, Barroso RJD, de Miguel I, Toledo RML, Siracusa D, Salvadori E, Tymecki A, Ye Y, Monroy IT (2012) Next generation flexible and cognitive heterogeneous optical networks. The future internet. Springer, pp 225–236
de Miguel I, Durán RJ, Jiménez T, Fernández N, Aguado JC, Lorenzo RM, Caballero A, Monroy IT, Ye Y, Tymecki A et al (2013) Cognitive dynamic optical networks [invited]. J Opt Commun Netw 5(10):A107–A118
Moura U, Garrich M, Carvalho H, Svolenski M, Andrade A, Margarido F, Csar AC, Conforti E, Oliveira J (2015) Sdn-enabled edfa gain adjustment cognitive methodology for dynamic optical networks. In: 41th European conference and exhibition on optical communication (ECOC 2015). IET
Agrell E, Karlsson M, Chraplyvy AR, Richardson DJ, Krummrich PM, Winzer P, Roberts K, Fischer JK, Savory SJ, Eggleton BJ, Secondini M, Kschischang FR, Lord A, Prat J, Tomkos I, Bowers JE, Srinivasan S, Brandt-Pearce M, Gisin N (2016) Roadmap of optical communications. J Opt 18(6):063002
Govind PA (2002) Fiber-optic communication systems. Wiley, New York
Becker PM, Olsson AA, Simpson JR (1999) Erbium-doped fiber amplifiers: fundamentals and technology. Academic Press
Moura UC, Oliveira JR, Amgarten RL, Paiva GE, Oliveira JCF (2012) Caracterizador automatizado de máscara de potência de amplificadores ópticos para redes wdm reconfiguráveis. In: XXX Brazilian symposium on telecommunication, Brasilia, Brazil
Lumentum (2015) Multichannel erbium-doped fiber amplifier (EDFA)
de Moura UC, Oliveira JR, Cesar AC (2014) Roteamento de tráfego em redes wdm dinâmicas utilizando amplificadores ópticos com controle adaptativo de ganho. In: Anais do MOMAG 2014. IEEE, pp 7–12
Lopez De Mantaras R, McSherry D, Bridge D, Leake D, Smyth B, Craw S, Faltings B, Maher ML, Cox MT, Forbus K et al (2005) Retrieval, reuse, revision and retention in case-based reasoning. Knowl Eng Rev 20(03):215–240
Črepinšek M, Liu S-H, Mernik M (2013) Exploration and exploitation in evolutionary algorithms: a survey. ACM Comput Surv (CSUR) 45(3):35
T. U. of Adelaide (2013) The internet topology zoo
B. Hoppe (2009) Webwhompers
Dijkstra EW (1959) A note on two problems in connexion with graphs. Numer Math 1(1):269–271
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de Moura, U.C., Garrich, M., Cesar, A.C., Reis, J.D., Oliveira, J., Conforti, E. (2017). Optical Amplifier Cognitive Gain Adjustment Methodology for Dynamic and Realistic Networks. In: Paradisi, A., Godoy Souza Mello, A., Lira Figueiredo, F., Carvalho Figueiredo, R. (eds) Cognitive Technologies. Telecommunications and Information Technology. Springer, Cham. https://doi.org/10.1007/978-3-319-53753-5_9
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