Continuous wave and passively Q-switched Nd:Lu0.15Y0.85VO4 laser with 885 nm direct pumping

Qi-nan Li , Bin Zhao , Tao Zhang , Rei Li , Xiang-mei Liu , Ya-hui Zheng , Xiao-jun Liu

Optoelectronics Letters ›› 2015, Vol. 11 ›› Issue (3) : 199 -202.

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Optoelectronics Letters ›› 2015, Vol. 11 ›› Issue (3) :199 -202. DOI: 10.1007/s11801-015-5057-3
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Continuous wave and passively Q-switched Nd:Lu0.15Y0.85VO4 laser with 885 nm direct pumping
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Abstract

The 885 nm direct pumping directly into the 4F3/2 emitting level of Nd3+ is applied on an Nd:Lu0.15Y0.85VO4 crystal. The maximum output power of 2.8 W for continuous wave (CW) operation is obtained. For Q-switched operation, the maximum average output power is 1.2 W with pulse repetition of 23.69 kHz and pulse width of 35 ns at the pump power of 27.9 W. The high-quality fundamental transverse mode can be observed owing to the reduction of thermal effect for Nd:Lu0.15Y0.85VO4 crystal by 885 nm direct pumping.

Keywords

Pump Power / Continuous Wave / Saturable Absorber / Average Output Power / Incident Pump Power

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Qi-nan Li, Bin Zhao, Tao Zhang, Rei Li, Xiang-mei Liu, Ya-hui Zheng, Xiao-jun Liu. Continuous wave and passively Q-switched Nd:Lu0.15Y0.85VO4 laser with 885 nm direct pumping. Optoelectronics Letters, 2015, 11(3): 199-202 DOI:10.1007/s11801-015-5057-3

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References

[1]

Zhuo Z, Li S, Li T, Shan C, Jiang J, Zhao B, Li J, Chen J. Optics Communications. 2010, 283: 1886

[2]

Zhang S, Xu L, Wang Y, Wang M, Peng H, Xu J, Zhao B. IEEE Photonics Technology Letters. 2010, 22: 556

[3]

Cheng K, Zhao S Z, Li D C, Yang K J, Li G Q, Li T, Zhang G, Zhao B. Solid State and Liquid Lasers. 2011, 21: 74

[4]

Huang H T, Zhang S Y, Xu J L, Xu J Q, Zhao B, He J L. Laser Physics Letters. 2011, 8: 197

[5]

Zhang S, Wang X. Laser Physics. 2012, 22: 550

[6]

Zhao Y, Wang Z, Yu H, Guo L, Chen L, Zhuang S, Sun X, Xu X. Japanese Journal of Applied Physics. 2012, 51: 082701

[7]

Yang K, Zhao S, Zhang G, Cheng K, Zhao B, Xu J, He J, Wang Y. Optics Communications. 2012, 285: 158

[8]

Qiao W, Zhao S, Li G, Yang K, Li T, Zhao J, Zhao B. Laser Physics. 2015, 25: 045002

[9]

Wu L, Zhao S, Li D, Li G, Yang K, Cheng K, Zhao B. Optical and Quantum Electronics. 2013, 45: 233

[10]

Li X, Li Y, Zhao S, Li G, Zhao B, Yin L. Optics & Laser Technology. 2013, 45: 114

[11]

Agnesi A, Dell’Acqua S, Guandalini A, Reali G, Cornacchia F, Toncelli A, Tonelli M, Shimamura K, Fukuda T. IEEE Journal of Quantum Electronics. 2001, 37: 304

[12]

Li Q-N, Zhang T, Feng B-H, Zhang Z-G, Zhang H-J, Wang J-Y. Chinese Physics Letters. 2014, 31: 074209

[13]

Bjurshagen S, Koch R, Laurell F. Optics Communications. 2006, 261: 109

[14]

Pavel N, Lupei V, Saikawa J, Taira T, Kan H. Applied Physics B: Lasers and Optics. 2006, 82: 599

[15]

Pavel N, Lünstedt K, Petermann K, Huber G. Applied Optics. 2007, 46: 8256

[16]

Zong N, Zhang X-F, Ma Q-L, Wang B-S, Cui D-F, Peng Q-J, Xu Z-Y, Pan Y-B, Feng X-Q. Chinese Physics Letters. 2009, 26: 54211

[17]

Shi Y, Li Q, Zhang D, Feng B, Zhang Z, Zhang H, Wang J. Optics Communications. 2010, 283: 2888

[18]

Peng J, Zheng Y. Journal of Optoelectronics ·Laser. 2013, 24: 415

[19]

Chen X, Sun Z, Lei H, Jiang M, Hui Y, Li Q. Journal of Optoelectronics ·Laser. 2013, 24: 1917

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