Laser & Optoelectronics Progress, Volume. 61, Issue 9, 0900008(2024)

Progress in Semiconductor Saturable Absorption Mirror Mode-Locked Laser

Ting Huang1,2, Nan Lin1、*, Qiuyue Zhang1,2, Tianjiang He1,2, Cong Xiong1, Li Zhong1,2, Suping Liu1, and Xiaoyu Ma1,2
Author Affiliations
  • 1National Engineering Research Center for Optoelectronic Devices, Institute of Semiconductor, Chinese Academy of Science, Beijing 100083, China
  • 2College of Materials Science and Opto-Electronic Technology, University of Chinese Academy of Sciences, Beijing 100049, China
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    Figures & Tables(8)
    Principle diagram of SESAM mode-locking[6]. (a) Bitemporal absorption response; (b) pulse of SESAM mode-locking laser
    Comparison of SESAM structures[13,17]. (a) The structure diagrams of resonance (solid line) and anti-resonance (dashed line); (b) the reflectance diagrams of resonance (solid line) and anti-resonance (dashed line); (c) the structure diagrams of enhanced SESAM
    • Table 1. Nonlinear parameters of the different tested SESAMs, measured damage thresholds Fd and corresponding saturation parameter S[20]

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      Table 1. Nonlinear parameters of the different tested SESAMs, measured damage thresholds Fd and corresponding saturation parameter S[20]

      SESAM

      Saturation fluence

      Fsat /(μJ/cm2

      Modulation depth ΔR /%Nonsaturable loss ΔRns /%Inverse saturable absorption F2 /(μJ/cm2

      Damage fluence

      Fd /(mJ/cm2

      Corresponding saturation parameter S
      NTC722.050.04320032.6452
      SCTC2790.520.01552344.1157
      DTC21680.710.0231700122726
      DTC32470.430.04346000>210>850
    • Table 2. Measured nonlinear parameters, damage threshold, and recovery time[22]

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      Table 2. Measured nonlinear parameters, damage threshold, and recovery time[22]

      SESAMSaturation fluence Fsat /(μJ/cm2Modulation depth ΔR /%Nonsaturable loss ΔRns /%

      Inverse saturable absorption

      F2 /(μJ/cm2

      Reflectivity rollover fluence

      F0 /(μJ/cm2

      Damage fluence Fd /(μJ/cm2Recovery time τ1/e /ps
      1×3 SQW1201.10.106.03.96467
      6×1 SCQW1741.00.14105.811215
      8×1 SCQW3341.30.149.08.210817
      4×2 SCQW2461.20.189.27.08812
    • Table 3. Development of recent SESAM mode-locked thin disk lasers

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      Table 3. Development of recent SESAM mode-locked thin disk lasers

      YearReferenceGain materialWavelength /nmPulse width /fsAverage power /WRepetition rate /MHzPeak power /WEnergy /μJ
      200033Yb∶YAG103073016.234.657.50.47
      200334Yb∶YAG10308106034.31.9×1061.75
      201235Yb∶LuScO31040965.177.5
      201241Yb∶YAG103058325.6×10-316.327516.9
      201242Yb∶YAG1030110035×10-33.514541
      201243Yb∶SSO10362983.5×10-32727.81
      201244Yb∶CALGO1043

      300

      197

      135

      3.8×10-3

      4×10-3

      0.2×10-3

      21

      21

      45

      28

      20

      1.3

      1.3

      0.9

      0.03

      201245Yb∶CALGO10509412.5801.5×1060.15
      201336Yb∶CALGO1051625.16544×1060.08
      201437Yb∶Lu2O3 /Yb∶Sc2O310381031.441.7
      201438Yb∶YAG103010702423.066×10680
      201746Yb∶Lu2O3

      498

      260

      58

      16

      11.2

      47.2

      9.2×106

      100×106

      201847Yb∶YAG103058012013.413.69
      201848Yb∶YAG1030970125781.45×1061.6
      201849Yb∶YAG103078021010.954×10619
      201939Yb∶YAG10309403508.937×10639
      202040Ho∶YAG20903713.6624960.15
      202150Ho∶YAG2050166040.552.22090.78×106
      202251Ho∶YAG210011305023.61.9×1062.11
    • Table 4. Development of SESAM mode-locked VECSEL

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      Table 4. Development of SESAM mode-locked VECSEL

      ReferenceGain materialWavelength /nmPulse width /fsAverage power /mWRepetition rate /GHzPeak power /WCavity type
      4QW(InGaAs)103022×10321.64.40.2V
      53QW(InGaAs)10404771001.21152.5Z
      54QD(InAs)9583.3×103102500.54V
      55QD(InAs)106018×10327.42.570.52V
      56QWs(InGaAs)103010735.14.8V
      56QD(InAs)9707841×1035.4217.4V
      58QW(InGaAs)10306825.1×1031.73.85×103V
      59QWs(InGaAs)10134003.3×1031.674.35×103V
      60QW(InGaAs)1034961001.6560V
    • Table 5. Development of MIXSEL

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      Table 5. Development of MIXSEL

      ReferenceGain materialWavelength /nmPulse width /fsAverage power /mWRepetition rate /GHzPeak power /W
      26QD(InAs)95335×103402.80.36
      27QD(InAs)95928×1036.4×1032.4780.2
      61QW(InGaAs)9686201014.829.9
      62QW(InGaAs)964570127101.21.9
      63QW(InGaAs)10402532352.9240
      63QW(InGaAs)10402793101097
      65SQW(InGaAs)10841841154.33127
      64SQW(InGaAs)1033144302.7370
    • Table 6. Development of recent commercial SESAM mode-locked fiber lasers

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      Table 6. Development of recent commercial SESAM mode-locked fiber lasers

      YearReferenceDoped ionWavelength /nmPulse width /fsAverage power /mWRepetition rate /MHz
      2009102Yb3+10689101.7397
      2012103Yb3+106421×10317397
      2016104Er3+1560440159.2×103
      2016105Tm3+192828019520.5
      2018106Er3+15501354523.5
      2021107Er3+15613.86×1032414.95×103
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    Ting Huang, Nan Lin, Qiuyue Zhang, Tianjiang He, Cong Xiong, Li Zhong, Suping Liu, Xiaoyu Ma. Progress in Semiconductor Saturable Absorption Mirror Mode-Locked Laser[J]. Laser & Optoelectronics Progress, 2024, 61(9): 0900008

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    Paper Information

    Category: Reviews

    Received: May. 18, 2023

    Accepted: Jul. 24, 2023

    Published Online: Apr. 29, 2024

    The Author Email: Lin Nan (linnan@semi.ac.cn)

    DOI:10.3788/LOP231330

    CSTR:32186.14.LOP231330

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