劉建軍(湖南大學物理與微電子科學學院副教授)

劉建軍，男，湖南省衡陽縣人，漢族，中共黨員，博士，湖南大學物理與微電子科學學院副教授，博士生導師。

基本介紹

• 中文名：劉建軍
• 職業：教師
• 畢業院校：哈爾濱工業大學
• 學位/學歷：博士
• 專業方向：物理學
• 任職院校：湖南大學

人物經歷

教育經歷

2008.09-2013.07：哈爾濱工業大學航天學院光學工程專業，工學博士

2006.09-2008.07：哈爾濱工程大學理學院光學專業，理學碩士

1999.09-2003.07：東北林業大學師範學院（現理學院）物理學專業，理學學士

工作經歷

2018.01-現在：湖南大學物理與微電子科學學院，副教授

2013.09-2017.12：湖南大學物理與微電子科學學院，助理教授

2016.01-現在：湖南大學物理與微電子科學學院，博士生導師

2015.11-2016.12：紐約州立大學布法羅分校雷射、光子學與生物光子學研究所，訪問學者

2003.07-2006.08：大慶石油學院（現東北石油大學）電子科學學院，助教

學術兼職

Optics Letters、Journal of Physics D: Applied Physics、Journal of Physics: Condensed Matter、Applied Optics、 Journal of the Optical Society of America A、Journal of the Optical Society of America B、Optical Materials、Optics Communications、Optik、Optical Engineering等學術期刊審稿人。

研究領域

1. 從事電子科學與技術學科的教學工作，主講本科生課程《模擬電子技術》、《光波導原理與器件》及研究生課程《微納光子學原理(學術型)》、《微納光子學器件及套用(專業型)》。

2. 正從事基於光子晶體（含光子準晶）的微納光子學、拓撲光子學、微納光電器件及套用領域的科研工作，主要涉及透鏡、光纖、微腔及光波導器件及套用。

3. 擬開展基於聲子晶體的拓撲聲子學、聲學超表面、經典與量子波動功能器件及套用領域的科研工作，主要涉及平板透鏡的拓撲負折射、零折射、超分辨成像及亞波長聚焦及套用。

4. 在物理學（理學）、電子科學與技術（工學）、積體電路工程（專碩）三個專業招收碩士研究生；在電子科學與技術（工學）專業招收博士研究生；在“物理學”、“電子科學與技術”博士後科研流動站招收博士後科研人員。

科研項目

1. 國家自然科學基金青年科學基金項目《二維光子準晶透鏡成像的機理研究》（項目編號：61405058），2015.01–2017.12，主持。

2. 湖南省自然科學基金面上項目《二維全電介質光子晶體的三重簡併態及零折射率》（項目編號：2017JJ2048），2017.01–2019.12，主持。

學術成果

主要成果

以第一、通訊作者在Phys. Rev. Applied、Opt. Lett.、Opt. Express、J. Phys. D: Appl. Phys.、Appl. Phys. Express、IEEE Photonic. Tech. L.、Appl. Opt.、J. Opt. Soc. Am. A、J. Opt. Soc. Am. B、Photonic. Nanostruct. Fund. Appl.、Solid State Commun.、Superlattice. Microst.、Microelectron. Eng.等學術刊物上發表40餘篇SCI論文及2篇EI論文，獲授權6項中國發明專利。

學術論文

[43] B. Yan, J. Xie, E. Liu, Y. Peng, R. Ge, J. Liu*, and S. Wen, “Topological edge state in two-dimensional Stampfli-triangle photonic crystals,” Physical Review Applied, 12, 044004 (2019).

[42] C. Li, B. Yan, and J. Liu*, “Refractive index sensing characteristics in a D-shaped photonic quasi-crystal fiber sensor based on surface plasmon resonance,” Journal of the Optical Society of America A, 36(10): 1663–1668 (2019).

[41] A. Shi, R. Ge, and J. Liu*, “Refractive index sensor based on photonic quasi-crystal with concentric ring microcavity,” Superlattices and Microstructures, 133: 106198 (2019).

[40] Y. Cen, J. Xie, and J. Liu*, “Multi-band imaging and focusing of photonic crystal flat lens with scatterer-size gradient,” Chinese Optics Letters, 17(8): 080501 (2019).

[39] E. Liu, W. Tan, B. Yan, J. Xie, R. Ge, and J. Liu*, “Robust transmission of orbital angular momentum mode based on a dual-cladding photonic quasi-crystal fiber,” Journal of Physics D: Applied Physics, 52(32): 325110 (2019).

[38] D. Tang*, L. Chen, and J. Liu, “Visible achromatic super-oscillatory metasurfaces for sub-diffraction focusing,” Optics Express, 27(9): 12308–12316 (2019).

[37] E. Liu, S. Liang, and J. Liu*, “Double-cladding structure dependence of guiding characteristics in six-fold symmetric photonic quasi-crystal fiber,” Superlattices and Microstructures, 130: 61–67 (2019).

[36] Q. Liu, B. Yan, and J. Liu*, “U-shaped photonic quasi-crystal fiber sensor with high sensitivity based on surface plasmon resonance,”Applied Physics Express, 12(5): 052014 (2019).

[35] S. Liang, J. Xie, P. Tang*, and J. Liu*, “Large object distance and super-resolution graded-index photonic crystal flat lens,” Optics Express, 27(7): 9601–9609 (2019).

[34] J. Han, E. Liu, and J. Liu*, “Circular gradient-diameter photonic crystal fiber with large mode area and low bending loss,” Journal of the Optical Society of America A, 36(4): 533–539 (2019).

[33] T. Zhou, W. Tan, B. Yan, E. Liu, and J. Liu*, “Sub-wavelength focusing in the visible wavelength range realized by a one-dimensional ternary photonic crystal plano-concave lens,” Superlattices and Microstructures, 124: 176–184 (2018).

[32] C. Zhang, Z. Jiang, W. Tan, R. Ge, and J. Liu*, “Non-near-field sub-diffraction focusing in the visible wavelength range by a Fibonacci subwavelength circular grating,” Journal of the Optical Society of America A, 35(10): 1701–1704 (2018).

[31] W. Zhang, W. Tan, Q. Yang, T. Zhou, and J. Liu*, “Subwavelength focusing in visible light band by a Fibonacci photonic quasi-crystal plano-concave lens,” Journal of the Optical Society of America B, 35(10): 2364–2367 (2018).

[30] W. Tan, E. Liu, B. Yan, J. Xie, R. Ge, D. Tang, J. Liu*, and S. Wen, “Subwavelength focusing of a cylindrically symmetric plano-concave lens based on a one-dimensional Thue-Morse photonic quasicrystal,”Applied Physics Express, 11(9): 092002 (2018).

[29] R. Ge, J. Xie, B. Yan, E. Liu, W. Tan, and J. Liu*, “Refractive index sensor with high sensitivity based on circular photonic crystal,” Journal of the Optical Society of America A, 35(6): 992–997 (2018).

[28] J. Xie, J. Wang, R. Ge, B. Yan, E. Liu, W. Tan, and J. Liu*, “Multiband super-resolution imaging of graded-index photonic crystal flat lens,” Journal of Physics D: Applied Physics, 51(20): 205103 (2018).

[27] J. Liu* and Z. Fan, “Size limits for focusing of two-dimensional photonic quasicrystal lenses,” IEEE Photonics Technology Letters, 30(11): 1001–1004 (2018).

[26] C. Yue, W. Tan, and J. Liu*, “Photonic band gap properties of one-dimensional Thue-Morse all-dielectric photonic quasicrystal,” Superlattices and Microstructures, 117: 252–259 (2018).

[25] B. Yan, A. Wang, E. Liu, W. Tan, J. Xie, R. Ge, and J. Liu*, “Polarization filtering in the visible wavelength range using surface plasmon resonance and a sunflower-type photonic quasi-crystal fiber,” Journal of Physics D: Applied Physics, 51(15): 155105 (2018).

[24] E. Liu, W. Tan, B. Yan, J. Xie, R. Ge, and J. Liu*, “Broadband ultra-flattened dispersion, ultra-low confinement loss and large effective mode area in an octagonal photonic quasi-crystal fiber,” Journal of the Optical Society of America A, 35(3): 431–436 (2018).

[23] E. Liu, B. Yan, W. Tan, J. Xie, R. Ge, and J. Liu*, “Guiding characteristics of Sunflower-type fiber,” Superlattices and Microstructures, 115: 123–129 (2018).

[22] Z. Wang, K. Su, B. Feng, T. Zhang, W. Huang, W. Cai, W. Xiao, H. Liu, and J. Liu*, “Coupling length variation and multi-wavelength demultiplexing in photonic crystal waveguides,” Chinese Optics Letters, 16(1): 011301 (2018).

[21] Y. -F. Zhao, Z. -M. Wang, Z. -J. Jiang, X. Chen, C. -X. Yue, J. -Z. Wang, and J. -J. Liu*, “Add-drop filter with compound structures of photonic crystal and photonic quasicrystal,” Journal of Infrared and Millimeter Waves, 36(3): 342–348 (2017). (In Chinese)

[20] Z. -J. Jiang and J. -J. Liu*, “Progress in far-field focusing and imaging with super-oscillation,” Acta Physica Sinica, 65(23): 234203 (2016). (In Chinese)

[19] W. Cai, E. Liu, B. Feng, W. Xiao, H. Liu, Z. Wang, S. Wang, T. Liang, J. Liu, and J. Liu*, “Dodecagonal photonic quasi-crystal fiber with high birefringence,” Journal of the Optical Society of America A, 33(10): 2108–2114 (2016).

[18] B. Feng, E. Liu, Z. Wang, W. Cai, H. Liu, S. Wang, T. Liang, W. Xiao, and J. Liu*, “Generation of terahertz hollow beams by a photonic quasi-crystal flat lens,” Applied Physics Express, 9(6): 062003 (2016).

[17] J. Liu*, W. Tan, E. Liu, H. Hu, Z. Fan, T. Zhang, and X. Zhang, “Planar scanning method for detecting refraction characteristics of two-dimensional photonic quasi-crystal wedge-shaped prisms,” Journal of the Optical Society of America A, 33(5): 978–983 (2016).

[16] K. Su, Z. M. Wang, and J. J. Liu*, “Three waveguides directional coupler based on two dimensional square lattice photonic crystal,” Acta Optica Sinica, 36(3): 0323002 (2016). (In Chinese, EI)

[15] H. Liu, W. Xiao, W. Cai, E. Liu, B. Feng, Z. Wang, T. Liang, S. Wang, and J. Liu*,“Photonic quasi-crystal fiber with high birefringence,” Optical Engineering, 55(3): 036101 (2016).

[14] W. Cai, E. Liu, B. Feng, H. Liu, Z. Wang, W. Xiao, T. Liang, S. Wang, J. Liu, and J. Liu*, “Dispersion properties of a photonic quasi-crystal fiber with double cladding air holes,” Optik, 127(10): 4438–4442 (2016).

[13] J. Liu*, E. Liu, and Z. Fan, “Width dependence of two-dimensional photonic quasicrystal flat lens imaging characteristics,” Journal of Modern Optics, 63(7): 692–696 (2016).

[12] J. Liu*, E. Liu, Z. Fan, and X. Zhang, “Dielectric refractive index dependence of the focusing properties of a dielectric-cylinder-type decagonal photonic quasicrystal flat lens and its photon localization,” Applied Physics Express, 8(11): 112003 (2015).

[11] J. J. Liu*, E X. Liu, T. H. Zhang, and Z. G. Fan, “Thickness dependence of two-dimensional photonic quasicrystal lens imaging characteristics,” Solid State Communications, 201: 68–71 (2015).

[10] J. J. Liu*, H. L. Hu, W. Zhang, and Z. G. Fan, “Scatterer radius dependence of focusing properties in two-dimensional photonic quasicrystal flat lens,” Photonics and Nanostructures-Fundamentals Applications, 12(2): 138–143 (2014).

[9] J. Liu* and Z. Fan, “Two-dimensional photonic quasicrystal flat lens with three scatterers,” Optical Engineering, 53(7): 077101(2014).

[8] J. Liu* and Z. Fan, “Comparison of photonic bandgaps of two-dimensional periodic and quasi-periodic photonic crystals with different relative permittivity dielectric,” Optik, 125(21): 6566–6569 (2014).

[7] J. Liu*, Z. Fan, H. Hu, M. Yang, C. Guan, L. Yuan, H. Guo, and X. Zhang, “Wavelength dependence of focusing properties of two-dimensional photonic quasicrystal flat lens,” Optics Letters, 37(10): 1730–1732 (2012).

[6] Z. Fan, J. Liu*, S. Chen, H. Chang, C. Guan, and L. Yuan, “Comparative study of photonic band gaps of germanium-based two-dimensional triangular-lattice and square-lattice and decagonal quasi-periodic photonic crystals,” Microelectronic Engineering, 96: 11–17 (2012).

[5] J. Liu*, Z. Fan, M. Kuang, G. He, C. Guan, and L. Yuan, “Relative permittivity dependence of photonic band gaps for unit cells of the basic structural unit of two-dimensional decagonal photonic quasicrystals,” Optics Communications, 288: 52–55 (2012).

[4] J. Liu*, B. Zuo, S. Chen, H. Hu, H. Xiao, W. Zhang, Z. Fan, H. Guo, and X. Zhang, “Focusing properties of two-dimensional photonic quasicrystal flat lens at different object distances,” Optical Engineering, 51(7): 074005-1–074005-5 (2012).

[3] J. -J. Liu*, Z. -G. Fan, H. -S. Xiao, W. Zhang, C. -Y. Guan, and L. -B. Yuan, “Photonic band gap in Ge-based two-dimensional triangular lattice photonic crystals,” Journal of Infrared and Millimeter Waves, 31(1): 35–41 (2012). (In Chinese)

[2] J. Liu*, Z. Fan, H. Xiao, W. Zhang, C. Guan and L. Yuan, “Photonic bandgaps of different unit cells in the basic structural unit of germanium-based two-dimensional decagonal photonic quasi-crystals,” Applied Optics, 50(24): 4868–4872 (2011).

[1] Z. G. Fan, J. J. Liu*, H. S. Xiao, W. Zhang, C. Y. Guan and L. B. Yuan, “Research progress on growth technique and application of sapphire single crystal,” Journal of the Chinese Ceramic Society, 39(5): 880–891 (2011). (In Chinese, EI)

發明專利

[6] 劉建軍，王梓名，蘇康，劉鴻飛，馮波，蔡偉成，肖威，王爍，梁泰源. 一種高效光子晶體1.31/1.55μm波分復用器：中國，ZL201510825113.X[P]. 2018.03.27.

[5] 劉建軍，劉鴻飛，蔡偉成，肖威，馮波，王梓名，王爍，梁泰源. 一種新型高雙折射光子準晶光纖：中國，ZL201510407666.3[P]. 2018.01.19.

[4] 劉建軍，范志剛，胡海力，張旺，陳剛義，叢海佳. 簡易且高成像質量的二維光子晶體平板透鏡：中國，ZL201210579187.6[P]. 2015.4.22.

[3] 劉建軍，范志剛，左寶君，胡海力. 二維光子準晶楔形稜鏡折射效應的雙直線軌道探測方法：中國，ZL201210254546.0[P]. 2014.12.10.

[2] 范志剛，劉建軍，左寶君，陳守謙，張旺，胡海力. 耐高低溫光學視窗支撐部件：中國，ZL201010262269.9[P]. 2012.01.04.

[1] 張旺，劉建軍，范志剛，左寶君，陳守謙，胡海力. 耐高低溫中波紅外光學視窗及其製作方法：中國，ZL201010239974.7[P]. 2012.01.18.

3. 研究生畢業去向

[2] 葛睿（2016級碩），上海交通大學 物理學專業 攻讀博士學位（導師：陳玉萍）

[1] 譚威（2015級碩），湖南大學 計算機科學與技術專業 攻讀博士學位（導師：白艷鋒）, 學位論文被評為湖南大學2019年優秀碩士學位論文

獎勵榮譽

1. 湖南大學優秀共產黨員，2018.06

2. 湖南大學2019屆本科畢業實習優秀指導教師，2019.06