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典型文献
Temperature insensitive multi-channel light amplification systems on SOI platform
文献摘要:
We present a theoretical analysis of a novel multi-channel light amplification photonic system on chip,where the nonlinear Raman amplification phenomenon in the silicon[Si]wire waveguide is considered.Particularly,a compact and temperature insensitive Mach-Zehnder interferometer filter working as demultiplexer is also exploited,allowing for the whole Si pho-tonic system to be free from thermal interference.The propagation of the multi-channel pump and Stokes lights is described by a rigorous theoretical model that incorporates all relevant linear and nonlinear optical effects,including the intrinsic waveguide optical losses,first-and second-order frequency dispersion,self-phase and cross-phase modula-tion,phase shift and two-photon absorption,free-carriers dynamics,as well as the inter-pulse Raman interaction.Notably,to prevent excessive drift of the transmission window of the demultiplexer caused by ambient temperature variations and high thermo-optical coefficient of Si,an asymmetric waveguide width is adopted in the upper and lower arms of each Mach-Zehnder interferometer lattice cell.A Chebyshev half-band filter is utilized to achieve a flat pass-band transmission,achiev-ing a temperature sensitivity of<1.4 pm/K and over 100 K temperature span.This all-Si amplifier shows a thermally robust behavior,which is desired by future Si-on-insulator[SOI]applications.
文献关键词:
作者姓名:
Junhu Zhou;Jie You;Hao Ouyang;Runlin Miao;Xiang'ai Cheng;Tian Jiang
作者机构:
College of Advanced Interdisciplinary Studies,National University of Defense Technology,Changsha 410073,China;Defense Innovation Institute,Academy of Military Sciences PLA China,Beijing 100071,China;Beijing Institute for Advanced Study,National University of Defense Technology,Beijing 100020,China
引用格式:
[1]Junhu Zhou;Jie You;Hao Ouyang;Runlin Miao;Xiang'ai Cheng;Tian Jiang-.Temperature insensitive multi-channel light amplification systems on SOI platform)[J].中国光学快报(英文版),2022(08):29-35
A类:
B类:
Temperature,insensitive,channel,amplification,systems,SOI,platform,We,present,theoretical,analysis,novel,photonic,chip,where,nonlinear,Raman,phenomenon,silicon,Si,wire,waveguide,considered,Particularly,compact,temperature,Mach,Zehnder,interferometer,filter,working,demultiplexer,also,exploited,allowing,whole,free,from,interference,propagation,pump,Stokes,lights,described,rigorous,model,that,incorporates,relevant,optical,effects,including,intrinsic,losses,first,second,order,frequency,dispersion,self,phase,cross,modula,shift,two,absorption,carriers,dynamics,well,pulse,interaction,Notably,prevent,excessive,drift,transmission,window,caused,ambient,variations,high,thermo,coefficient,asymmetric,width,adopted,upper,lower,arms,each,lattice,cell,Chebyshev,half,band,utilized,achieve,flat,pass,sensitivity,pm,over,span,This,amplifier,shows,thermally,robust,behavior,which,desired,future,insulator,applications
AB值:
0.613877
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