发表论文
[1] 张新, 佟存柱, 蔡凯迪, 王延靖, 汪丽杰, 田思聪. 2.3W双向抽运3.5μm光纤激光器. 中国激光[J]. 2022, 49(18): 1-6, http://lib.cqvip.com/Qikan/Article/Detail?id=7108287930.[2] 徐汉阳, 田思聪, 韩赛一, 潘绍驰, MANSOOR, Ahamed, 佟存柱, 王立军, BIMBERG, Dieter. 53 Gbit/s高速单模940 nm垂直腔面发射激光器. 发光学报[J]. 2022, 43(7): 1114-1120, http://lib.cqvip.com/Qikan/Article/Detail?id=7107720758.[3] 田思聪, 佟存柱, 王立军, Bimberg, Dieter. 长春光机所高速垂直腔面发射激光器研究进展. 中国光学(中英文)[J]. 2022, 15(5): 946-953, http://lib.cqvip.com/Qikan/Article/Detail?id=7108076781.[4] 李儒颂, 田思聪. 狄拉克光子晶体在面发射激光器中的应用. 光电子激光[J]. 2022, 33(3): 230-240, http://lib.cqvip.com/Qikan/Article/Detail?id=7107361715.[5] 田思聪. Optimization of VCSEL photon lifetimes for minimum energy consumption for varying bit rates. Optics Express. 2020, [6] 杨卓凯, 田思聪, LARISCH Gunter, 贾晓卫, 佟存柱, 王立军, BIMBERG Dieter. 基于PAM4调制的高速垂直腔面发射激光器研究进展. 发光学报. 2020, 399-413, https://kns.cnki.net/KCMS/detail/detail.aspx?dbcode=CJFQ&dbname=CJFDLAST2020&filename=FGXB202004008&v=MDIyMjZHNEhOSE1xNDlGYklSOGVYMUx1eFlTN0RoMVQzcVRyV00xRnJDVVI3cWVaK1J2Rml2bVViL0lJeXJUYkw=.[7] 佟海霞, 佟存柱, 王子烨, 陆寰宇, 汪丽杰, 田思聪, 王立军. 850 nm高速垂直腔面发射激光器技术研究进展(特邀). 红外与激光工程[J]. 2020, 49(12): 22-29, http://lib.cqvip.com/Qikan/Article/Detail?id=7103953800.[8] Wang, Yanjing, Zhang, Xin, Tong, Cunzhu, Wang, Lijie, Shu, Shili, Tian, Sicong, Wang, Lijun. High power femtosecond semiconductor lasers based on saw-toothed master-oscillator power-amplifier system with compressed ASE. OPTICS EXPRESS[J]. 2020, 28(5): 7108-7115, https://www.webofscience.com/wos/woscc/full-record/WOS:000518435600096.[9] 杨卓凯, 田思聪, LARISCH, Gunter, 贾晓卫, 佟存柱, 王立军, BIMBERG, Dieter. 基于PAM4制的高速垂直腔面发射激光器研究进展. 发光学报[J]. 2020, 41(4): 399-413, http://lib.cqvip.com/Qikan/Article/Detail?id=7101477017.[10] 陆寰宇, 佟存柱, 王子烨, 田思聪, 汪丽杰, 佟海霞, 李儒颂, 王立军. 带边模式光子晶体面发射半导体激光器研究进展. 中国激光[J]. 2020, 47(7): 187-206, http://lib.cqvip.com/Qikan/Article/Detail?id=7102611264.[11] 田思聪. 基于PAM4 制的高速垂直腔面发射激光器研究进展. 发光学报. 2020, [12] Larisch, Gunter, Tian, Sicong, Bimberg, Dieter. Optimization of VCSEL photon lifetime for minimum energy consumption at varying bit rates. OPTICS EXPRESS[J]. 2020, 28(13): 18931-18937, https://www.webofscience.com/wos/woscc/full-record/WOS:000545130800028.[13] Tian, SiCong, Wan, RenGang, Wang, LiJie, Shu, ShiLi, Lu, HuanYu, Zhang, Xin, Tong, CunZhu, Xiao, Min, Wang, LiJun. Parity-time symmetry in coherent asymmetric double quantum wells. SCIENTIFICREPORTS[J]. 2019, 9(1): https://doaj.org/article/082727c277894675a966a41bac9ed01f.[14] GYHou, SLShu, JFeng, APopp, BSchmidt, HYLu. High Power (27 W) Semiconductor Disk Laser Based on Pre-Metalized Diamond Heat-Spreader. IEEE PHOTONICS JOURNAL[J]. 2019, 11(2): [15] Tian, SiCong, Lu, HuanYu, Zhang, Hang, Wang, LiJie, Shu, ShiLi, Zhang, Xin, Hou, GuanYu, Wang, ZiYe, Tong, CunZhu, Wang, LiJun. Enhancing Third- and Fifth-Order Nonlinearity via Tunneling in Multiple Quantum Dots. NANOMATERIALS[J]. 2019, 9(3): https://doaj.org/article/50c3ba81f1404311a36df2d54d3d4aad.[16] GuanYu Hou, ShiLi Shu, Jian Feng, Andreas Popp, Berthold Schmidt, HuanYu Lu, LiJie Wang, SiCong Tian, CunZhu Tong, LiJun Wang. High Power (>27 W) Semiconductor Disk Laser Based on Pre-Metalized Diamond Heat-Spreader. IEEE PHOTONICS JOURNAL[J]. 2019, 11(2): 1-8, https://doaj.org/article/f15692f2a5c04a249d7d3e5848ebc47f.[17] Wang, Lijie, Tong, Cunzhu, Shu, Shili, Tian, Sicong, Sun, Fangyuan, Zhao, Yufei, Lu, Huanyu, Zhang, Xin, Hou, Guanyu, Wang, Lijun. Loss tailoring of high-power broad-area diode lasers. OPTICS LETTERS[J]. 2019, 44(14): 3562-3565, https://www.webofscience.com/wos/woscc/full-record/WOS:000475678500038.[18] Lu, HuanYu, Tian, SiCong, Tong, CunZhu, Wang, LiJie, Rong, JiaMin, Liu, ChongYang, Wang, Hong, Shu, ShiLi, Wang, LiJun. Extracting more light for vertical emission: high power continuous wave operation of 1.3-mu m quantum-dot photonic-crystal surface-emitting laser based on a flat band. LIGHT-SCIENCE & APPLICATIONS[J]. 2019, 8: https://www.webofscience.com/wos/woscc/full-record/WOS:000497993500001.[19] Sun, Fangyuan, Zhao, Yufei, Shu, Shili, Hou, Guanyu, Lu, Huanyu, Zhang, Xin, Wang, Lijie, Tian, Sicong, Tong, Cunzhu, Wang, Lijun. High beam quality broad-area diode lasers by spectral beam combining with double filters. CHINESE OPTICS LETTERS[J]. 2019, 17(1): http://lib.cqvip.com/Qikan/Article/Detail?id=71887566504849574849484950.[20] FYSun, SLShu, GYHou, LJWang, JZhang, HYPeng. Efficiency and Threshold Characteristics of Spectrally Beam Combined High-Power Diode Lasers. IEEE JOURNAL OF QUANTUM ELECTRONICS[J]. 2019, 55(1): 7-, https://www.webofscience.com/wos/woscc/full-record/WOS:000456929600001.[21] Hou, Guanyu, Wang, Lijie, Feng, Jian, Popp, Andreas, Schmidt, Berthold, Lu, Huanyu, Shu, Shili, Tian, Sicong, Tong, Cunzhu, Wang, Lijun. Beam Control in an Intracavity Frequency-Doubling Semiconductor Disk Laser. APPLIED SCIENCES-BASEL[J]. 2019, 9(8): http://apps.webofknowledge.com/CitedFullRecord.do?product=UA&colName=WOS&SID=5CCFccWmJJRAuMzNPjj&search_mode=CitedFullRecord&isickref=WOS:000467316400069.[22] Tian, SiCong, Wan, RenGang, Wang, LiJie, Shu, ShiLi, Lu, HunaYu, Zhang, Xin, Tong, CunZhu, Feng, JingLiang, Xiao, Min, Wang, LiJun. Asymmetric light diffraction of two-dimensional electromagnetically induced grating with PT symmetry in asymmetric double quantum wells. OPTICS EXPRESS[J]. 2018, 26(25): 32918-32930, https://www.webofscience.com/wos/woscc/full-record/WOS:000452612200048.[23] Sun, Fangyuan, Shu, Shili, Zhao, Yufei, Hou, Guanyu, Lu, Huanyu, Zhang, Xin, Wang, Lijie, Tian, Sicong, Tong, Cunzhu, Wang, Lijun. High-brightness diode lasers obtained via off-axis spectral beam combining with selective feedback. OPTICSEXPRESS[J]. 2018, 26(17): 21813-21818, https://www.webofscience.com/wos/woscc/full-record/WOS:000442136200038.[24] Sun, Fangyuan, Wang, Lijie, Zhao, Yufei, Hou, Guanyu, Shu, Shili, Zhang, Jun, Peng, Hangyu, Tian, Sicong, Tong, Cunzhu, Wang, Lijun. Off-axis spectral beam combining of Bragg reflection waveguide photonic crystal diode lasers. JAPANESE JOURNAL OF APPLIED PHYSICS[J]. 2018, 57(6): https://www.webofscience.com/wos/woscc/full-record/WOS:000454304900001.[25] Zhao, Yufei, Sun, Fangyuan, Tong, Cunzhu, Shu, Shili, Hou, Guanyu, Lu, Huanyu, Zhang, Xin, Wang, Lijie, Tian, Sicong, Wang, Lijun. Going beyond the beam quality limit of spectral beam combining of diode lasers in a V-shaped external cavity. OPTICS EXPRESS[J]. 2018, 26(11): 14058-14065, https://www.webofscience.com/wos/woscc/full-record/WOS:000433333700032.[26] Shu Shili, Hou Guanyu, Feng Jian, Wang Lijie, Tian Sicong, Tong Cunzhu, Wang Lijun. Progress of optically pumped GaSb based semiconductor disk laser. 光电进展(英文)[J]. 2018, 1(2): 9-17, http://lib.cqvip.com/Qikan/Article/Detail?id=675961223.[27] Shu, Shili, Hou, Guanyu, Feng, Jian, Wang, Lijie, Tian, Sicong, Tong, Cunzhu, Wang, Lijun. Progress of optically pumped GaSb based semiconductor disk laser. OPTO-ELECTRONIC ADVANCES[J]. 2018, 1(2): http://dx.doi.org/10.29026/oea.2018.170003.[28] Lu, Zefeng, Wang, Lijie, Zhang, Yu, Shu, Shili, Tian, Sicong, Tong, Cunzhu, Hou, Guanyu, Chai, Xiaoli, Xu, Yingqiang, Ni, Haiqiao, Niu, Zhichuan, Wang, Lijun. High-power GaSb-based microstripe broad-area lasers. APPLIED PHYSICS EXPRESS[J]. 2018, 11(3): https://www.webofscience.com/wos/woscc/full-record/WOS:000425960100001.[29] Wang, Lijie, Li, Zhen, Tong, Cunzhu, Shu, Shili, Tian, Sicong, Zhang, Jun, Zhang, Xin, Wang, Lijun. Near-diffraction-limited Bragg reflection waveguide lasers. APPLIED OPTICS[J]. 2018, 57(34): F15-F21, [30] Lu, Zefeng, Wang, Lijie, Zhao, Zhide, Shu, Shili, Hou, Guanyu, Lu, Huanyu, Tian, Sicong, Tong, Cunzhu, Wang, Lijun. Broad-area laser diodes with on-chip combined angled cavity. CHINESE OPTICS LETTERS[J]. 2017, 15(8): https://www.webofscience.com/wos/woscc/full-record/WOS:000407438600016.[31] Tian, SiCong, Zhang, XiaoJun, Wan, RenGang, Wang, LiJie, Shu, ShiLi, Wang, Tao, Lu, ZeFeng, Sun, FangYuan, Tong, CunZhu. Control of transient gain absorption via tunneling and incoherent pumping in triple quantum dots. LASER PHYSICS[J]. 2017, 27(1): https://www.webofscience.com/wos/woscc/full-record/WOS:000390774600001.[32] Liu, Xiaoyi, Gao, Jinsong, Yang, Haigui, Wang, Xiaoyi, Tian, Sicong, Guo, Chengli. Hybrid Plasmonic Modes in Multilayer Trench Grating Structures. ADVANCED OPTICAL MATERIALS[J]. 2017, 5(22): https://www.webofscience.com/wos/woscc/full-record/WOS:000415344900005.[33] Xing EnBo, Rong JiaMin, Tong CunZhu, Tian SiCong, Wang LiJie, Shu ShiLi, Wang LiJun. Influence of microcavity effect on modulation response in 1.3 mu m quantum dot photonic crystal nanocavity lasers. JOURNAL OF INFRARED AND MILLIMETER WAVES[J]. 2017, 36(2): 160-166, https://www.webofscience.com/wos/woscc/full-record/WOS:000400884100007.[34] Shu, Shili, Hou, Guanyu, Wang, Lijie, Tian, Sicong, Vassiliev, Leonid L, Tong, Cunzhu. Heat dissipation in high-power semiconductor lasers with heat pipe cooling system. JOURNAL OF MECHANICAL SCIENCE AND TECHNOLOGY[J]. 2017, 31(6): 2607-2612, https://www.webofscience.com/wos/woscc/full-record/WOS:000404236400002.[35] Wang Lijun, Xing Enbo, Rong Jiamin, Zhang Yu, Tong Cunzhu, Tian Sicong, Wang Lijie, Shu Shili, Lu Zefeng, Niu Zhichuan. Watt - class low divergence 2 μm GaSb based broad-area quantum well lasers. JOURNAL OF INFRARED AND MILLIMETER WAVES[J]. 2017, 36(3): 280-282,288, http://sciencechina.cn/gw.jsp?action=detail.jsp&internal_id=6017576&detailType=1.[36] Xing EnBo, Rong JiaMin, Zhang Yu, Tong CunZhu, Tian SiCong, Wang LiJie, Shu ShiLi, Lu ZeFeng, Niu ZhiChuan, Wang LiJun. Watt-class low divergence 2 mu m GaSb based broad-area quantum well lasers. JOURNAL OF INFRARED AND MILLIMETER WAVES[J]. 2017, 36(3): 280-+, https://www.webofscience.com/wos/woscc/full-record/WOS:000406085000006.[37] 邢恩博, 戎佳敏, 佟存柱, 田思聪, 汪丽杰, 舒适立, 王立军. 微腔效应对于1.3μm量子点光子晶体纳腔激光器调制响应的影响. 红外与毫米波学报[J]. 2017, 36(2): 160-166, http://lib.cqvip.com/Qikan/Article/Detail?id=671931031.[38] 董立超, 田思聪, 王涛, 卢泽丰, 汪丽杰, 舒世立, 秦莉, 佟存柱, 王立军. 半导体超晶格声子激光器的研究进展. 中国光学[J]. 2017, 10(4): 415-425, http://lib.cqvip.com/Qikan/Article/Detail?id=672845307.[39] 田思聪. Watt-class low divergence 2 um GaSb based broad-area quantum well lasers. J. Infrared Millim. Waves. 2017, [40] 邢恩博, 戎佳敏, 张宇, 佟存柱, 田思聪, 汪丽杰, 舒适立, 卢泽丰, 牛智川, 王立军. 2微米波段低发散角瓦级GaSb基宽区量子阱激光器(英文). 红外与毫米波学报[J]. 2017, 36(3): 280-282, http://lib.cqvip.com/Qikan/Article/Detail?id=672553526.[41] Wang, Tao, Wang, Lijie, Shu, Shili, Tian, Sicong, Lu, Zefeng, Hou, Guanyu, Lu, Huanyu, Tong, Cunzhu, Wang, Lijun. Beam control of high-power broad-area photonic crystal lasers using ladderlike groove structure. APPLIED PHYSICS EXPRESS[J]. 2017, 10(6): https://www.webofscience.com/wos/woscc/full-record/WOS:000401070500002.[42] 田思聪. Progress of semiconductor superlattice phonon laser. Chinese Optics. 2017, [43] 邢恩博, 戎佳敏, 佟存柱, 田思聪, 汪丽杰, 舒适立, 王立军. 微腔效应对于1.3μm量子点光子晶体纳腔激光器调制响应的影响(英文). 红外与毫米波学报[J]. 2017, 160-166, http://ir.ciomp.ac.cn/handle/181722/58540.[44] Wang, Tao, Wang, Lijie, Shu, Shili, Tian, Sicong, Zhao, Zhide, Tong, Cunzhu, Wang, Lijun. Suppression of far-field blooming in high-power broad-area diode lasers by optimizing gain distribution. CHINESE OPTICS LETTERS[J]. 2017, 15(7): https://www.webofscience.com/wos/woscc/full-record/WOS:000405355000014.[45] Enbo Xing, Cunzhu Tong, Jiamin Rong, Shili Shu, Hao Wu, Lijie Wang, Sicong Tian, Lijun Wang. Modulation of carrier dynamics and threshold characteristics in 1.3-μm quantum dot photonic crystal nanocavity lasers. OPTICS AND LASER TECHNOLOGY. 2016, 82: 10-16, http://dx.doi.org/10.1016/j.optlastec.2016.01.038.[46] Xing, Enbo, Tong, Cunzhu, Rong, Jiamin, Shu, Shili, Wu, Hao, Wang, Lijie, Tian, Sicong, Wang, Lijun. Modulation of carrier dynamics and threshold characteristics in 1.3-mu m quantum dot photonic crystal nanocavity lasers. OPTICSANDLASERTECHNOLOGY[J]. 2016, 82: 10-16, https://www.webofscience.com/wos/woscc/full-record/WOS:000375507400002.[47] Rong, Jiamin, Xing, Enbo, Wang, Lijie, Shu, Shili, Tian, Sicong, Tong, Cunzhu, Wang, Lijun. Control of lateral divergence in high-power, broad-area photonic crystal lasers. APPLIED PHYSICS EXPRESS[J]. 2016, 9(7): http://ir.ciomp.ac.cn/handle/181722/57167.[48] Rong, Jiamin, Xing, Enbo, Zhang, Yu, Wang, Lijie, Shu, Shili, Tian, Sicong, Tong, Cunzhu, Chai, Xiaoli, Xu, Yingqiang, Ni, Haiqiao, Niu, Zhichuan, Wang, Lijun. Low lateral divergence 2 mu m InGaSb/AlGaAsSb broad-area quantum well lasers. OPTICS EXPRESS[J]. 2016, 24(7): 7246-7252, http://ir.ciomp.ac.cn/handle/181722/57168.[49] Tian, SiCong, Xing, EnBo, Wan, RenGang, Wang, ChunLiang, Wang, LiJie, Shu, ShiLi, Tong, CunZhu, Wang, LiJun. Control of coherence transfer via tunneling in quadruple and multiple quantum dots. LASER PHYSICS LETTERS[J]. 2016, 13(12): http://ir.ciomp.ac.cn/handle/181722/57210.[50] Tian, SiCong, Wan, RenGang, Wang, ChunLiang, Shu, ShiLi, Wang, LiJie, Tong, ChunZhu. Creation and Transfer of Coherence via Technique of Stimulated Raman Adiabatic Passage in Triple Quantum Dots. NANOSCALE RESEARCH LETTERS[J]. 2016, 11(1): http://ir.ciomp.ac.cn/handle/181722/57208.[51] Wang, Tao, Tong, Cunzhu, Wang, Lijie, Zeng, Yugang, Tian, Sicong, Shu, Shili, Zhang, Jian, Wang, Lijun. Injection-insensitive lateral divergence in broad-area diode lasers achieved by spatial current modulation. APPLIED PHYSICS EXPRESS[J]. 2016, 9(11): http://ir.ciomp.ac.cn/handle/181722/57244.[52] Tian, SiCong, Zhang, XiaoJun, Wan, RenGang, Zhao, Shuai, Wu, Hao, Shu, ShiLi, Wang, LiJie, Tong, CunZhu. Transient gain-absorption of the probe field in triple quantum dots coupled by double tunneling. OPTICS COMMUNICATIONS[J]. 2016, 368: 129-133, http://dx.doi.org/10.1016/j.optcom.2016.02.010.[53] Tian, SiCong, Wan, RenGang, Wang, LiJie, Shu, ShiLi, Tong, CunZhu, Wang, LiJun. Tunneling-assisted coherent population transfer and creation of coherent superposition states in triple quantum dots. LASERPHYSICSLETTERS[J]. 2016, 13(12): http://ir.ciomp.ac.cn/handle/181722/57209.[54] Jiamin Rong, Enbo Xing, Yu Zhang, Lijie Wang, Shili Shu, Sicong Tian, Cunzhu Tong, Xiaoli Chai, Yingqiang Xu, Haiqiao Ni, Zhichuan Niu, Lijun Wang. Low lateral divergence 2 μm InGaSb/ AlGaAsSb broad-area quantum well lasers. OPTICS EXPRESS[J]. 2016, 24(7): 7246-7252, http://ir.semi.ac.cn/handle/172111/27821.[55] Tian, SiCong, Wan, RenGang, Xing, EnBo, Rong, JiaMin, Wu, Hao, Wang, LiJie, Shu, ShiLi, Tong, CunZhu, Ning, YongQiang. Tunneling induced transparency and giant Kerr nonlinearity in multiple quantum dot molecules. PHYSICA E-LOW-DIMENSIONAL SYSTEMS & NANOSTRUCTURES[J]. 2015, 69: 349-353, http://ir.ciomp.ac.cn/handle/181722/55435.[56] Tian, SiCong, Wan, RenGang, Tong, CunZhu, Zhang, JinLong, Shan, XiaoNan, Fu, XiHong, Zeng, YuGang, Qin, Li, Ning, YongQiang. Control of optical bistability and third-order nonlinearity via tunneling induced quantum interference in triangular quantum dot molecules. AIP ADVANCES[J]. 2015, 5(6): http://ir.ciomp.ac.cn/handle/181722/55429.[57] Tian, SiCong, Wan, RenGang, Shan, XiaoNan, Tong, CunZhu, Qin, Li, Ning, YongQiang. Controllable cavity linewidth narrowing via spontaneously generated coherence in a four level atomic system. OPTICS COMMUNICATIONS[J]. 2015, 356: 155-160, http://dx.doi.org/10.1016/j.optcom.2015.07.068.[58] 佟存柱, 汪丽杰, 田思聪, 吴昊, 舒世立, 王立军. 布拉格反射波导半导体激光器的研究. 中国光学[J]. 2015, 8(3): 480-498, http://lib.cqvip.com/Qikan/Article/Detail?id=665240730.[59] Tian, SiCong, Wan, RenGang, Li, LianHe, Tong, CunZhu, Ning, YongQiang. Cavity linewidth narrowing by tunneling induced double dark resonances in triple quantum dot molecules. OPTICS COMMUNICATIONS[J]. 2015, 334(334): 94-100, http://dx.doi.org/10.1016/j.optcom.2014.08.011.[60] Tian, SiCong, Wan, RenGang, Tong, CunZhu, Fu, XiHong, Cao, JunSheng, Ning, YongQiang. Giant Kerr nonlinearity via tunneling induced double dark resonances in triangular quantum dot molecules. LASER PHYSICS LETTERS[J]. 2015, 12(12): http://ir.ciomp.ac.cn/handle/181722/55433.[61] 田思聪. Study on Bragg reflection waveguide diode laser. Chinese Optics. 2015, [62] Tian, SiCong, Wan, RenGang, Tong, CunZhu, Ning, YongQiang. Giant fifth-order nonlinearity via tunneling induced quantum interference in triple quantum dots. AIP ADVANCES[J]. 2015, 5(2): http://ir.ciomp.ac.cn/handle/181722/55432.[63] Wang, Lijie, Tong, Cunzhu, Tian, Sicong, Shu, Shili, Zeng, Yugang, Rong, Jiamin, Wu, Hao, Xing, Enbo, Ning, Yongqiang, Wang, Lijun. High-Power Ultralow Divergence Edge-Emitting Diode Laser With Circular Beam. IEEE JOURNAL OF SELECTED TOPICS IN QUANTUM ELECTRONICS[J]. 2015, 21(6): http://ir.ciomp.ac.cn/handle/181722/55458.[64] Tian, SiCong, Wan, RenGang, Xing, EnBo, Tong, CunZhu, Ning, YongQiang. Tunneling control of cavity linewidth narrowing via quantum interference in triangular quantum dot molecules. JOURNAL OF MODERN OPTICS[J]. 2014, 61(18): 1479-1485, http://www.irgrid.ac.cn/handle/1471x/950964.[65] Tian, SiCong, Wan, RenGang, Tong, CunZhu, Ning, YongQiang, Qin, Li, Liu, Yun. Giant Kerr nonlinearity induced by tunneling in triple quantum dot molecules. JOURNAL OF THE OPTICAL SOCIETY OF AMERICA B-OPTICAL PHYSICS[J]. 2014, 31(7): 1436-1442, http://www.irgrid.ac.cn/handle/1471x/950938.[66] Tian SiCong, Tong CunZhu, Wan RenGang, Ning YongQiang, Qin Li, Liu Yun, Wang LiJun, Zhang Hang, Wang ZengBin, Gao JinYue. Phase control of light amplification in steady and transient processes in an inverted-Y atomic system with spontaneously generated coherence. CHINESE PHYSICS B[J]. 2014, 23(4): http://www.irgrid.ac.cn/handle/1471x/950950.[67] Tian, SiCong, Wan, RenGang, Tong, CunZhu, Ning, YongQiang, Qin, Li, Liu, Yun. Tunneling induced dark states and the controllable resonance fluorescence spectrum in quantum dot molecules. JOURNAL OF PHYSICS B-ATOMIC MOLECULAR AND OPTICAL PHYSICS[J]. 2014, 47(15): http://www.irgrid.ac.cn/handle/1471x/950936.[68] Tian, SiCong, Tong, CunZhu, Wang, ChunLiang, Wang, LiJie, Wu, Hao, Xing, EnBo, Ning, YongQiang, Wang, LiJun. Spectral line narrowing via spontaneously generated coherence in quantum dot molecules. OPTICS COMMUNICATIONS[J]. 2014, 312(312): 296-301, http://dx.doi.org/10.1016/j.optcom.2013.09.059.[69] Tian, SiCong, Tong, CunZhu, Wang, ChunLiang, Ning, YongQiang. Effects of spontaneously generated coherence on resonance fluorescence from triple quantum dot molecules. JOURNAL OF LUMINESCENCE[J]. 2014, 153(153): 169-176, http://dx.doi.org/10.1016/j.jlumin.2014.03.034.[70] Tian, SiCong, Wan, RenGang, Tong, CunZhu, Ning, YongQiang. Controlling optical bistability via interacting double dark resonances in linear quantum dot molecules. 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