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Hybrid silicon modulators

Hybrid silicon modulators
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摘要 A number of active elements have been demonstrated using the hybrid silicon evanescent platform, including lasers, amplifiers, and detectors. In this letter, two types of hybrid silicon modulators, flflfilling the building blocks in optical communication on this platform, are presented. A hybrid silicon electroabsorp- tion modulator, suitable for high speed interconnects, with 10-dB extinction ratio at -5 V and 16-GHz modulation bandwidth is demonstrated. In addition, a hybrid silicon Mach-Zehnder modulator utilizing carrier depletion in multiple quantum wells is proved with 2 V.mm voltage-length product, 150-nm optical bandwidth, and a large signal modulation up to 10 Gb/s. A number of active elements have been demonstrated using the hybrid silicon evanescent platform, including lasers, amplifiers, and detectors. In this letter, two types of hybrid silicon modulators, flflfilling the building blocks in optical communication on this platform, are presented. A hybrid silicon electroabsorp- tion modulator, suitable for high speed interconnects, with 10-dB extinction ratio at -5 V and 16-GHz modulation bandwidth is demonstrated. In addition, a hybrid silicon Mach-Zehnder modulator utilizing carrier depletion in multiple quantum wells is proved with 2 V.mm voltage-length product, 150-nm optical bandwidth, and a large signal modulation up to 10 Gb/s.
作者 J.E.Bowers
出处 《Chinese Optics Letters》 SCIE EI CAS CSCD 2009年第4期280-285,共6页 中国光学快报(英文版)
基金 the financial support from DARPA/MTO and ARL, USA.
关键词 BANDWIDTH Electroabsorption modulators MODULATION Modulators Optical communication Quantum well lasers Semiconducting indium compounds Semiconductor quantum wells SILICON Silicon detectors Bandwidth Electroabsorption modulators Modulation Modulators Optical communication Quantum well lasers Semiconducting indium compounds Semiconductor quantum wells Silicon Silicon detectors
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  • 1A.Liu,R.Jones,L.Liao,D.Samara-Rubio,D.Rubin,O.Cohen,R.Nicolaescu,and M.Paniccia,Nature 427,615 (2004).
  • 2D.Marris-Morini,X.Le Roux,L.Vivien,E.Cassan,D.Pascal,M.Halbwax,S.Maine,S.Laval,J.M.Fedeli,and J.F.Damlencourt,Opt.Express 14,10838 (2006).
  • 3Y.Jiang,W.Jiang,L.Gu,X.Chen,and R.T.Chen,Appl.Phys.Lett.87,221105 (2005).
  • 4Q.Xu,B.Schmidt,S.Pradhan,and M.Lipson,Nature 435,325 (2005).
  • 5R.S.Jacobsen,K.N.Andersen,P.I.Borel,J.FagePedersen,L.H.Frandsen,O.Hansen,M.Kristensen,A.V.Lavrinenko,G.Moulin,H.Ou,C.Peucheret,B.Zsigri,and A.Bjarklev,Nature 441,199 (2006).
  • 6J.E.Roth,O.Fidaner,R.K.Schaevitz,Y.-H.Kuo,T.I.Kamins,J.S.Harris,Jr.,and D.A.B.Miller,Opt.Express 15,5851 (2007).
  • 7J.Liu,M.Beals,A.Pomerene,S.Bernardis,R.Sun,J.Cheng,L.C.Kimerling,and J.Michel,Nature Photon.2,433 (2008).
  • 8M.N.Sysak,J.O.Anthes,J.E.Bowers,O.Raday,and R.Jones,Opt.Express 16,12478 (2008).
  • 9H.Fukano,T.Yamanaka,M.Tamura,and Y.Kondo,J.Lightwave Technol.24,2219 (2006).
  • 10H.-W.Chen,Y.-H.Kuo,and J.E.Bowers,IEEE Photon.Technol.Lett.20,1920 (2008).

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