代表性学术著作
1. B.Y. Yang,X.S. Liu*, W.Z. Jia, S. Liu, K. Mei, T.W. Ge, D.C. Yang, Y.Q. Liu, T. Lan and Z.Y. Wang. Low loss hollow-core connecting-circle negative-curvature fibres.IEEE Photonics Journal. 2021(13):7200710.
2.X.S. Liu, W.Z. Jia, Y.H. Song, S. Yang, S. Liu, Y.Q. Liu, A.R. Yan and Z.Y. Wang. High energy, high brightness picosecond master oscillator power amplifier with output power 65.5 W.Optics Express. 2020(28): 8016.
3.X.S. Liu, W.Z. Jia, S. Yang, H. He, Y.Q. Liu, A.R. Yan and Z.Y. Wang. A high pulse energy single-pass picosecond master oscillator power amplifier system with output power 35.7 W.Optics and Laser Technology. 2020(121): 105782.
4. Y.H. Song,X.S. Liu*, S. Yang, J.Y. Zou, C.C. Wang, Y.Q. Liu, A.R. Yan, and Z.Y. Wang. Multiwavelength diode array end-pumped Nd:YAG pulsed laser.Journal of Laser Applications. 2020(32):032028.
5. Y.H. Song,X.S. Liu*, W.Z. Jia, S. Yang, S. Liu and Z.Y. Wang. Nanosecond Yb-oped fiber MOPA system based on an LCP ortex half-waveplate with a 20 W radially polarized output.Optik. 2020(224):165504.
6.X.S.Liu, H. He, Y.H. Song, C.C. Wang and Z.Y. Wang. 500-kHz Level High Energy Double-Pass Nd:YVO4Picosecond Amplifier with Optic-Optic Efficiency of 51%.Applied Sciences-Basel. 2019(9): 219.
7. H. He,X.S. Liu*, Y.H. Song, C.C. Wang, M.Z. Cao, A.R. Yan and Z.Y. Wang. LD end-pumped Nd:YVO4high energy high beam quality 1064 nm picosecond laser with a semiconductor saturable absorber mirror.Optik. 2018(175):172.
8. H. He,X.S. Liu*, Y.H. Song, C.C. Wang, M.Z. Cao and Z.Y. Wang. A high-energy 1064-nm picosecond master oscillator laser with an optic-optic efficiency of 38%.AIP Advances. 2018(8): 115216.
9. C.C. Wang,X.S. Liu*, Z.Y. Wang, M. Zhao, H. He and J.Y. Zou. Electronic, optical property and carrier mobility of graphene, black phosphorus, and molybdenum disulfide based on the first principles.Chin. Phys. B. 2018(27):118106.
10. J. Dong,X.S. Liu*, C. Peng, Y.Q. Liu and Z.Y. Wang. High power Diode-Side-Pumped Q-Switched Nd:YAG Solid-State laser with a thermoelectric cooler.Appl. Sci. 2015(5):1837-1845.
Publications
1. B.Y. Yang,X.S. Liu*, W.Z. Jia, S. Liu, K. Mei, T.W. Ge, D.C. Yang, Y.Q. Liu, T. Lan and Z.Y. Wang. Low loss hollow-core connecting-circle negative-curvature fibres.IEEE Photonics Journal. 2021(13):7200710.
2.X.S. Liu, W.Z. Jia, Y.H. Song, S. Yang, S. Liu, Y.Q. Liu, A.R. Yan and Z.Y. Wang. High energy, high brightness picosecond master oscillator power amplifier with output power 65.5 W.Optics Express. 2020(28): 8016.
3.X.S. Liu, W.Z. Jia, S. Yang, H. He, Y.Q. Liu, A.R. Yan and Z.Y. Wang. A high pulse energy single-pass picosecond master oscillator power amplifier system with output power 35.7 W.Optics and Laser Technology. 2020(121): 105782.
4. Y.H. Song,X.S. Liu*, S. Yang, J.Y. Zou, C.C. Wang, Y.Q. Liu, A.R. Yan, and Z.Y. Wang. Multiwavelength diode array end-pumped Nd:YAG pulsed laser.Journal of Laser Applications. 2020(32):032028.
5. Y.H. Song,X.S. Liu*, W.Z. Jia, S. Yang, S. Liu and Z.Y. Wang. Nanosecond Yb-oped fiber MOPA system based on an LCP ortex half-waveplate with a 20 W radially polarized output.Optik. 2020(224):165504.
6.X.S.Liu, H. He, Y.H. Song, C.C. Wang and Z.Y. Wang. 500-kHz Level High Energy Double-Pass Nd:YVO4Picosecond Amplifier with Optic-Optic Efficiency of 51%.Applied Sciences-Basel. 2019(9): 219.
7. H. He,X.S. Liu*, Y.H. Song, C.C. Wang, M.Z. Cao, A.R. Yan and Z.Y. Wang. LD end-pumped Nd:YVO4high energy high beam quality 1064 nm picosecond laser with a semiconductor saturable absorber mirror.Optik. 2018(175):172.
8. H. He,X.S. Liu*, Y.H. Song, C.C. Wang, M.Z. Cao and Z.Y. Wang. A high-energy 1064-nm picosecond master oscillator laser with an optic-optic efficiency of 38%.AIP Advances. 2018(8): 115216.
9. C.C. Wang,X.S. Liu*, Z.Y. Wang, M. Zhao, H. He and J.Y. Zou. Electronic, optical property and carrier mobility of graphene, black phosphorus, and molybdenum disulfide based on the first principles.Chin. Phys. B. 2018(27):118106.
10. J. Dong,X.S. Liu*, C. Peng, Y.Q. Liu and Z.Y. Wang. High power Diode-Side-Pumped Q-Switched Nd:YAG Solid-State laser with a thermoelectric cooler.Appl. Sci. 2015(5):1837-1845.