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1.3-Μm-range GaInNAsSb-GaAs VCSELs

机译:1.3μm范围的GaInNAsSb-GaAs VCSEL

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摘要

1.3-Μm-range GaInNAsSb vertical-cavity surface-emitting lasers (VCSELs) with the doped mirror were investigated. GaInNASb active layers that include a small amount of Sb can be easily grown in a two-dimensional manner as compared with GaInNAs due to the suppression of the formation of three-dimensional growth in MBE growth. The authors obtained the lowest Jth per well (150 A/cm2/well) for the edge-emission type lasers due to the high quality of GaInNAsSb quantum wells. Using this material for the active media, the authors accomplished the first continuous wave operation of 1.3-Μm-range GaInNAsSb VCSELs. For the reduction of the threshold voltage and the differential resistance, they used the doped mirror grown by metal-organic chemical vapor deposition (MOCVD). By three-step growth, they obtained 1.3-Μm GaInNAs-based VCSELs with the low threshold current density (3.6 kA/cm2), the low threshold voltage (1.2 V), and the low differential resistance (60 Ω) simultaneously for the first time. The back-to-back transmission was carried out up to 5 Gb/s. Further, the uniform operation of 10-ch VCSEL array was demonstrated. The maximum output power of 1 mW was obtained at 20°C by changing the reflectivity of the front distributed Bragg reflector mirror. GaInNAsSb VCSELs were demonstrated to be very promising material for realizing the 1.3-Μm signal light sources, and the usage of the doped mirror grown by MOCVD is the best way for 1.3-Μm VCSELs.
机译:研究了带有掺杂镜的1.3-μm范围的GaInNAsSb垂直腔面发射激光器(VCSEL)。与GaInNA相比,由于抑制了MBE生长中的三维生长的形成,所以包含少量Sb的GaInNASb有源层可以容易地以二维方式生长。由于GaInNAsSb量子阱的高质量,作者获得了边缘发射型激光器的最低每孔Jth(150 A / cm2 /孔)。使用这种材料作为活性介质,作者完成了1.3-μm范围的GaInNAsSb VCSEL的首次连续波操作。为了降低阈值电压和差分电阻,他们使用了通过金属有机化学气相沉积(MOCVD)生长的掺杂镜。通过三步生长,他们首次获得了具有1.3Mm GaInNAs的VCSEL,它们具有低阈值电流密度(3.6 kA / cm2),低阈值电压(1.2 V)和低差分电阻(60Ω)。时间。背对背传输速率高达5 Gb / s。另外,对10ch VCSEL阵列的均匀动作进行了说明。通过改变正面分布的布拉格反射镜的反射率,在20°C时可获得1 mW的最大输出功率。事实证明,GaInNAsSb VCSEL是实现1.3μm信号光源的非常有前途的材料,而MOCVD生长的掺杂镜的使用是1.3μmVCSEL的最佳方法。

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