张建伟 清华大学精仪系副研究员

张建伟，现任 清华大学精仪系副研究员，毕业于北京大学电子学系，并先后获学士学位、博士学位。2007-2010年，在德国Max-Planck学会光学研究所从事博士后研究。

发表学术论文60余篇，Google统计引用540余次。授权专利10项，美国专利1项。

教育经历：

2002.9 ~ 2007.7，北京大学信息科学技术学院，博士。

1998.9 ~ 2002.7，北京大学电子学系，学士。

工作经历：

2010.8 ~ 至今，助理研究员/副研究员，清华大学精仪系，精密测量联合实验室。

2007.8 ~ 2010.6，德国马普学会光学所，博士后。

学术兼职： 

1、中国计量测试学会时频专业委员会委员。

2、中国物理学会原子分子物理专委会青年委员。

3、全国电力系统管理及其信息交换标准化技术委员会工作组成员。

4、中国电机工程学会高级会员。

5、2021-2023年任《导航定位与授时》青年编委。

主讲课程：

《近代物理学与精密测量》

本科专业选修课，秋季学期。

面向非物理专业的理工专业学生，以近代物理与精密测量相互促进推动发展为主线，教授学生近代物理的科学思想和相关精密测量技术，培养学生的科学理念、科学思维、科学方法以及对精密测量的理解，为与精密测量相关领域的应用打下广泛而坚实的理论和知识基础。

《科学仪器概论》

本科专业选修课，秋季学期。

研究生培养情况：

协助指导博士研究生

在读：郑莹，施文心，陈烁天，郭天骏，颜丙禄

毕业：

苗胜楠（2025，《高性能镉离子微波钟技术研究》）

陈一婷（2025，《小型化可搬运激光冷却镱离子微波频标研究》）

秦浩然 （2023，《协同冷却镉离子微波钟及提高其性能技术研究》）

辛弄潮 （2023，《激光冷却镱离子微波钟》）

韩济泽 （2021，《协同冷却技术在微波钟及光谱测量中的应用研究》）

左娅妮（2019，《基于协同冷却的离子阱微波原子钟的研究》）

程鹏飞（2019，《基于平行线偏构型的铯原子Ramsey-CPT 原子钟研究》）

孙晓林（2018，《脉冲CPT量子频标新方案的研究》）

吴晨菲（2018，《冷铯原子束频标》）

颜学术（2017，《基于冷铯原子束的新型微波频标的研究》）

缪   凯（2016，《镉离子微波原子钟》）

黄家强（2016《冷铯原子微波频标新方案探索与研究》）

王时光（2013，《高精度镉离子原子钟》）

王正博（2012，《北斗同步、授时方案与激光冷却镉离子微波频标的研究》）

指导硕士研究生

在读：普京，张玥，王云婷

毕业：

赵天罡 （2024，《基于探测光束法的自动对焦系统研究》）

施文心 （2023，《碳化硅晶圆微管缺陷检测》）

胡华星  （2022，《数字微镜近红外光谱仪的阿达玛变换编码研究》）

郭黎明  （2021，《Yb 空心阴极灯光谱及激光稳频的研究》）

招生招聘

欢迎本科生、研究生、博士后加入本研究组，请直接联系张建伟老师。

本科生科研 / SRT / 毕业设计

欢迎物理、精密仪器、光电、电子、自动化、计算机及相关专业本科生参与。

可参与方向包括：

离子阱与冷离子实验；

激光稳频与精密光谱；

原子钟自动控制与数据采集；

离子运动与 Coulomb crystal 数值模拟；

分子动力学仿真与科学计算；

科研仪器智能化与实验自动化。

硕士/博士研究生

围绕高性能原子钟、囚禁离子精密测量、激光冷却与协同冷却、精密激光光谱、离子阱与多体动力学、时间频率测量等方向开展研究。

博士后

长期欢迎在原子分子光物理、离子阱、原子钟、激光冷却、精密光谱、量子精密测量、时频技术、科学计算与实验自动化等方向具有研究经验的博士申请博士后岗位。

欢迎国内外相关领域研究人员开展科研合作与学术交流。

研究方向：

主要从事时间频率精密测量相关研究，具体包括离子阱微波原子钟、半导体缺陷检测、精密光谱应用、稳频激光器等精密测量仪器设备研制等。

研究领域：

微波量子频标（原子钟）、时间频率测量、精密激光光谱等。

1. 囚禁离子微波量子频标

围绕 113Cd⁺、171Yb⁺ 等离子体系，研究高稳定度、高准确度微波频率标准及其小型化、可搬运化和连续运行技术。

2. 冷离子与协同冷却

研究多组分 Coulomb crystal、激光冷却、协同冷却、离子微运动与热运动，以及二阶 Doppler 频移等限制原子钟性能的关键物理机制。

3. 精密激光光谱与原子参数测量

开展 Cd⁺、Yb⁺ 等离子的超精细结构、同位素位移、Landé gg 因子等精密测量，并利用光频梳、稳频激光等技术提高测量精度。

4. 时间频率系统与工程化

面向高性能守时授时和时频基准应用，开展频率比对、微波源、磁场控制、自动控制、小型化和可搬运原子钟系统研究。

主要承担国家973计划、国家重点研发计划、国家自然科学基金、国家重点实验基金、北京市自然科学基金等项目。主要研究工作概况：

（1）激光冷却镉离子微波频标

激光冷却镉离子微波频标具有优异的频率稳定度、频率准确度性能，系统相对简单，可实现小型化，在高性能守时授时系统中有很好的应用前景。主要研究内容包括激光冷却技术、协同冷却技术、短期稳定度提升、频率不确定评估、小型化集成技术、频率比对测量技术等。

（2）Ramsey-CPT微波频标

Ramsey-CPT微波频标是在CPT频标基础上，应用分离振荡场技术和偏振正交检测技术，可明显提升频标稳定度性能。主要研究内容包括偏振正交检测技术、基于FPGA的时序控制技术、交替锁定技术等。

（3）激光稳频及精密光谱

基于稳频激光的精密光谱技术可以获得极高的测量灵敏度，广泛应用于气体检测、计量、工业检测等领域。主要研究内容包括超窄线宽激光器、原子/分子谱线激光稳频以及相关应用研究。

 

2025

J-45.Precision determination of an excited-state hyperfine splitting of cadmium ions, Y. Zheng ; Y. M. Yu ; Y. T. Chen ; S. N. Miao ; W. X. Shi; J. W. Zhang ; L. J. Wang, Appl. Phys. Lett. 126, 101106 (2025), https://doi.org/10.1063/5.0261002

J-46.Laser‑cooled 171Yb+ microwave clock with a systematic uncertainty of 7.8×10−15, Y. T. Chen ; Y. Zheng ; S. N. Miao ; W. X. Shi ; S. T. Chen ; J. W. Zhang ; L. J. Wang, Opt. Lett. 50, 6024 (2025), https://doi.org/10.1364/OL.570488

2024

C-34.Progress on cadmium-ion and ytterbium-ion Microwave Frequency Standards at Tsinghua University, S. N. Miao, Y. Zheng, Y. T. Chen, W. X. Shi, J. W. Zhang and L. J. Wang, Journal of Physics: Conference Series, 2889 (2024) 012036 , (9th Symposium on Frequency Standards and Metrology, Kingscliff, NSW, Australia. 16-20 October 2023). doi:10.1088/1742-6596/2889/1/012036

C-33.Precision determination of the ground-state hyperfine splitting in a 113Cd+ microwave clock, Shengnan Miao, Ying Zheng, Yiting Chen, Wenxin Shi, Jianwei Zhang, Lijun Wang, 2024 European Frequency and Time Forum (EFTF), June 25-27, 2024 in Neuchâtel, Switzerland. DOI: 10.1109/EFTF61992.2024.10722764

C-32.Hyperfine Structure and Absolute Frequency Measurements of 127I2 Transitions at 554 nm and Its Application for Yb+ Ions Cooling, Yiting Chen, Jianwei Zhang, Shengnan Miao, Ying Zheng, Wenxin Shi, Lijun Wang, 2024 European Frequency and Time Forum (EFTF), June 25-27, 2024 in Neuchâtel, Switzerland. DOI: 10.1109/EFTF61992.2024.10722760

J-44.保罗离子阱中离子二阶多普勒频移评估, 苗胜楠,郑 莹,张升康,陈海军,张建伟,王力军, 宇航计测技术, Vol. 44 No. 5:68, 2024. DOI:10. 12060 / j. issn. 1000-7202. 2024. 05. 11

J-43.镉离子微波钟研究进展, 苗胜楠,张建伟,王力军, 仪器仪表学报 ,Vol. 45 No. 2, 2024. DOI: 10. 19650 / j. cnki. cjsi. J2311937

J-42.Orbital Hall diffraction and its application for vortex measurement,Lu Zhao, Yiting Chen, AND Jianwei Zhang, Optics Letters, Vol. 49, No. 13, 2024. https://doi.org/10.1364/OL.525985

J-41.Absolute frequency measurement of molecular iodine hyperfine transitions at 554 nm and its application to stabilize a 369 nm laser for Yb+ ions cooling, Y.T. Chen, N.C. Xin, H.R. Qin, S.N. Miao, Y. Zheng, J.W. Zhang∗, L.J. Wang. Chinese Journal of Physics 88 (2024) 485–492. https://doi.org/10.1016/j.cjph.2023.12.007

2023

C-31.Cooling and Crystallization of Trapped Single 171Yb+ Ion for Optical Frequency Standard. Jize Han, Ying Zheng, Shengnan Miao, Yiting Chen, Jianwei Zhang, Lijun Wang, Lei Han, Xing Chen, Xiaobo Xue, Shengkang Zhang, 2023 Joint Conference of the European Frequency and Time Forum and IEEE International Frequency Control Symposium (EFTF/IFCS) , DOI: 10.1109/EFTF/IFCS57587.2023.10272099

C-30.Progress on Ion Microwave Frequency Standards at Tsinghua University, H. R. Qin, Y. Zheng, N. C. Xin, S. N. Miao, Y. T. Chen, W. X. Shi, J. Z. Han, J. W. Zhang and L. J. Wang. 2023 Joint Conference of the European Frequency and Time Forum and IEEE International Frequency Control Symposium (EFTF/IFCS) . DOI: 10.1109/EFTF/IFCS57587.2023.10272154

J-40.基于囚禁离子的微波频标研究进展, 秦浩然 , 张建伟，王力军，计测技术，2023，43（3）：29-42. doi：10.11823/j.issn.1674-5795.2023.03.03

J-39.174Yb+–113Cd+ sympathetic-cooling bi-species Coulomb crystal applied to microwave frequency standard,Y. Zheng, H. R. Qin, S. N. Miao, N. C. Xin, Y. T. Chen, J. Z. Han, J. W. Zhang, and L. J. Wang, Appl. Phys. Lett. 123, 081105(2023); doi: 10.1063/5.0164117.

J-38.Sympathetic cooling of a large 113Cd+ ion crystal with 40Ca+ in a linear Paul trap, S.N. Miao , H.R. Qin , N.C. Xin, J.Z. Han, Y.T. Chen, J.W. Zhang, L.J. Wang, Chinese Journal of Physics 83 (2023) 242–252. https://doi.org/10.1016/j.cjph.2023.03.015

2022

J-37.Second-order Doppler frequency shifts of trapped ions in a linear Paul trap, S. N. Miao , J.W. Zhang ,* Y. Zheng, H. R. Qin , N. C. Xin, Y. T. Chen, J. Z. Han, and L. J. Wang, PHYSICAL REVIEW A 106, 033121 (2022) https://doi.org/10.1103/PhysRevA.106.033121

C-29.A Microwave Clock Based on Laser-Cooled 171Yb+ Ions, N. C. Xin, J.W. Zhang, S. N. Miao , Y. T. Chen, Y. Zheng, H.R. Qin, J.Z. Han, L. J. Wang, 2022 Joint Conference of the European Frequency and Time Forum and IEEE International Frequency Control Symposium (EFTF/IFCS). DOI: 10.1109/EFTF/IFCS54560.2022.9850757

C-28.Progress Towards a Microwave Frequency Standard Based on Sympathetically-cooled 113Cd+ Ions, S. N. Miao, J.W. Zhang, N. C. Xin, Y. T. Chen, J. Z. Han, Y. Zheng, L. J. Wang, 2022 Joint Conference of the European Frequency and Time Forum and IEEE International Frequency Control Symposium (EFTF/IFCS). DOI: 10.1109/EFTF/IFCS54560.2022.9850845

J-36.Determination of hyperfine splittings and Landé gJ factors of 5s 2S1/2 and 5p 2P1/2,3/2 states of 111,113Cd+ for microwave frequency standards, J. Z. Han , R. Si, H. R. Qin , N. C. Xin, Y. T. Chen, S. N. Miao, C. Y. Chen,* J.W. Zhang ,† and L. J. Wang‡, PHYSICAL REVIEW A 106, 012821 (2022). DOI: 10.1103/PhysRevA.106.012821

J-35.High-Performance Microwave Frequency Standard Based on Sympathetically Cooled Ions, Hao-Ran Qin (秦浩然) , Sheng-Nan Miao (苗胜楠) , Ji-Ze Han (韩济泽) , Nong-Chao Xin (辛弄潮) , Yi-Ting Chen (陈一婷) , J.W. Zhang (张建伟) ,* and L.J. Wang (王力军)†, PHYSICAL REVIEW APPLIED 18, 024023 (2022). DOI: 10.1103/PhysRevApplied.18.024023

J-34.Isotope shift factors for the Cd+ 5s2S1/2→5p2P3/2 transition and determination of Cd nuclear charge radii, J. Z. Han, C. Pan, K. Y. Zhang, X. F. Yang, S. Q. Zhang, J. C. Berengut, S. Goriely, H. Wang, Y. M. Yu, J. Meng, J.W. Zhang, and L. J. Wang, Physical Review Research, Vol. 4, 033049 (2022). DOI: 10.1103/PhysRevResearch.4.033049

J-33.Laser-cooled ^{171}Yb^+ microwave frequency standard with a short-term frequency instability of 8.5 × 10−13/√τ，N. C. XIN, H. R. QIN, S. N. MIAO, Y. T. CHEN, Y. ZHENG, J. Z. HAN, J.W. ZHANG,* AND L. J. WANG，Optics Expres Vol. 30, No. 9： 14574，2022. https://doi.org/10.1364/OE.453423

2021

J-32.Precision determination of the ground-state hyperfine splitting of trapped 113Cd+ ions, S. N. Miao, J.W. Zhang,* H. R. Qin, N. C. Xin, J. Z. Han, AND L. J. Wang, Optics Letters Vol. 46, No. 23, 5882, 2021. https://doi.org/10.1364/OL.444045

J-31.Nong-Chao Xin, Sheng-Nan Miao, Hao-Ran Qin, Li-Ming Guo, Ji-Ze Han, Hua-Xing Hu, Wen-Xin Shi, J.W. Zhang* and Li-Jun Wang, "Research on the ions' axial temperature of a sympathetically-cooled 113Cd+ ion crystal", Chinese Physics B , 2021, Vol. 30(11): 113701

J-30.J. Z. Han, H. R. Qin, N. C. Xin, Y. M. Yu, V. A. Dzuba, J.W. Zhang, and L. J. Wang, Toward a high-performance transportable microwave frequency standard based on sympathetically cooled 113Cd+ ions, Appl. Phys. Lett. 118, 101103 (2021); doi: 10.1063/5.0041314

2020

C-27.C.F. Wu, X.S. Yan, J.W. Zhang and L. J. Wang，Towards a Raman-Ramsey Clock based on a Cold Cesium Beam，2020 Joint Conference f the IEEE International Frequency Control Symposium & IEEE International Symposium on Application of Ferroelectrics，出版年：2020

C-26.J.Z. Han, H.R. Qin, L.M.Guo, N.C. Xin, H.X. Hu, J.W. Zhang and L. J. Wang, Progress on Sympathetic Cooling of 113Cd+ by Laser-cooled 40Ca+ for Cadmium Ion Frequency Standard，2020 Joint Conference f the IEEE International Frequency Control Symposium & IEEE International Symposium on Application of Ferroelectrics.

C-25.Li, Xiaojie; Meng, Zhixin; Yan, Peiqiang; J.W. Zhang; Feng, Yanying，A Multi-Axis Atom Interferometer Gyroscope Based on a Grating Chip，INERTIAL 2020 - 7th IEEE International Symposium on Inertial Sensors and Systems, Proceedings，出版年：2020

2019

J-29.Zuo, Y.N., J.Z. Han, J.W. Zhang, and L.J. Wang, Direct temperature determination of a sympathetically cooled large Cd-113(+) ion crystal for a microwave clock. Applied Physics Letters, 2019. 115(6): p. 061103. DOI: 10.1063/1.5094833.

J-28.Han, J.Z., Y.M. Yu, B.K. Sahoo, J.W. Zhang, and L.J. Wang, Roles of electron correlation effects for the accurate determination of g(j) factors of low-lying states of Cd-113(+) and their applications to atomic clocks. PHYSICAL REVIEW A, 2019. 100(4): p. 042508. DOI: 10.1103/PhysRevA.100.042508.

J-27.Han, J., Y. Zuo, J.W. Zhang, and L. Wang, Theoretical investigation of the black-body Zeeman shift for microwave atomic clocks. European Physical Journal D, 2019. 73(1): p. 9. DOI: 10.1140/epjd/e2018-90342-1.

J-26.Cheng, P.F., J.W. Zhang, and L.J. Wang, Ramsey-coherent population trapping Cs atomic clock based on lin parallel to lin optical pumping with dispersion detection. Chinese Physics B, 2019. 28(7): p. 070601. DOI: 10.1088/1674-1056/28/7/070601.

C-24.Zuo, Y.N., J.Z. Han, J.W. Zhang, and L.J. Wang, Progress towards a Cadmium Ion Microwave Clock: Improvement of the Signal-to-Noise Ratio of the Clock Signal based on Sympathetic Cooling, in 2019 Joint Conference of the IEEE International Frequency Control Symposium and European Frequency and Time Forum, IFCS/EFTF 2019. 2019: 8101 World Center Dr, Orlando, FL, United states.

C-23.Cheng, P., J.W. Zhang, D. Zhang, and L.J. Wang, Suppression of Dick Effect by Interleaving Lock in a Ramsey-CPT Atomic Clock, in 50th Annual Precise Time and Time Interval Systems and Applications Meeting. 2019. p. 83-84.

2018

J-25.Wu, C.F., X.S. Yan, J.Q. Huang, J.W. Zhang, and L.J. Wang, Phase noise reduction by optical phase-locked loop for a coherent bichromatic laser based on the injection-locking technique. Review of Scientific Instruments, 2018. 89(1): p. 013103. DOI: 10.1063/1.4993262.

J-24.Sun, X.-L., J.W. Zhang, P.-F. Cheng, Y.-N. Zuo, and L.-J. Wang, Theoretical analysis of suppressing Dick effect in Ramsey-CPT atomic clock by interleaving lock. Chinese Physics B, 2018. 27(2): p. 023101. DOI: 10.1088/1674-1056/27/2/023101.

J-23.Pengfei, C., S. Xiaolin, J.W. Zhang, and W. Lijun, Suppression of Dick Effect in Ramsey-CPT Atomic Clock by Interleaving Lock. IEEE Transactions on Ultrasonics, Ferroelectrics, and Frequency Control, 2018. 65(11): p. 2195-2200. DOI: 10.1109/tuffc.2018.2864622.

J-22.Fei, W.C., Y.X. Shu, W.L. Xun, M. Pei, T.J. Hui, J.W. Zhang, and W.L. Jun, Modulation transfer spectroscopy based on acousto-optic modulator with zero frequency shift. Chinese Physics B, 2018. 27(11): p. 114203. DOI: 10.1088/1674-1056/27/11/114203.

C-21.Cheng, P., X. Sun, J. Tu, Z. Wang, J. Cui, J.W. Zhang, and L.J. Wang, Progress in Suppressing Dick Effect in the Ramsey-CPT Atomic Clock by Interleaving Lock, in 72nd Annual International Frequency Control Symposium, IFCS 2018. 2018: Olympic Valley, CA, United states.

C-22.Zuo, Y.N., J.Z. Han, L. Wei, J.W. Zhang, and L.J. Wang, Progress Towards a Cadimium Ion Microwave Clock Based on Sympathetic Cooling, in 72nd Annual International Frequency Control Symposium, IFCS 2018. 2018: Olympic Valley, CA, United states.

2017

C-20.Zuo, Y.N., P.F. Cheng, X.L. Sun, L.J. Wang, J.W. Zhang, and L.J. Wang, Investigation of dual species ions cloud by molecular-dynamics simulation for microwave clocks, in 2017 Joint Conference of the European Frequency and Time Forum and IEEE International Frequency Control Symposium, EFTF/IFC 2017. 2017. p. 481-483.

C-19.Wu, C.F., X.S. Yan, J.H. Tu, P.X. Miao, P. Ma, J.W. Zhang, and L.J. Wang, A low phase noise Raman lasers system based on optical injection and an optical phase-lock loop, in 2017 Joint Conference of the European Frequency and Time Forum and IEEE International Frequency Control Symposium, EFTF/IFC 2017. 2017. p. 631-632.

C-18.Sun, X., P. Cheng, Y. Zuo, L. Wang, and J.W. Zhang, Reduction of dick effect in a pulsed CPT vapor cell clock by interleaving lock, in 2017 Joint Conference of the European Frequency and Time Forum and IEEE International Frequency Control Symposium, EFTF/IFC 2017. 2017. p. 294-295.

C-17.Cheng, P., X. Sun, F. Liu, D. Zhang, J.W. Zhang, and L. Wang, An electronic controller based on FPGA for the Ramsey-CPT atomic clock, in 2017 Joint Conference of the European Frequency and Time Forum and IEEE International Frequency Control Symposium, EFTF/IFC 2017. 2017. p. 616-617.

C-16.左娅妮, 程鹏飞, 孙晓林, 张建伟, and 王力军, 基于双离子阱的协同冷却镉离子微波原子钟的研究进展, in 第八届中国卫星导航学术年会. 2017: 中国,上海市. p. 114-116.

C-15.孙晓林, 程鹏飞, 徐迟, 左娅妮, 张建伟, and 王力军, 基于色散探测的平行线偏型Ramsey-CPT原子钟的研究进展, in 第八届中国卫星导航学术年会论文集——S06原子钟与时频技术. 2017. p. 3.

J-21.Yan, X., C. Wu, J. Huang, J.W. Zhang, and L. Wang, Velocity-tunable cold Cs atomic beam from a magneto-optical trap. Chinese Optics Letters, 2017. 15(4): p. 040202. DOI: 10.3788/col201715.040202.

2016

C-14.Zuo, Y.N., K. Miao, C. Gao, J.W. Zhang, and L.J. Wang, Progress of the dual-traps microwave frequency standard based on Cd-113+ ions, in IEEE International Frequency Control Symposium (IFCS). 2016. p. 171-174.

C-13.Yan, X., J. Huang, C. Wuti, C. Gao, J.W. Zhang, and L. Wang, Progress toward a CPT-Ramsey clock based on a continuous cold cesium beam, in 2016 IEEE IFCS. 2016.

C-12.Cheng, P.F., X.L. Sun, C. Xu, C. Gao, L. Zhao, J.W. Zhang, and L.J. Wang, A Vapor Cell Atomic Clock of Rb-87 Based on Ramsey-CPT with Dispersion Detection, in IEEE International Frequency Control Symposium (IFCS). 2016. p. 161-163.

C-11.Cheng, P.F., X.L. Sun, C. Xu, C. Gao, L. Zhao, J.W. Zhang, and L.J. Wang, A vapor cell atomic clock of87Rb based on Ramsey-CPT with dispersion detection, in 2016 IEEE IFCS. 2016.

J-20.Sun, X.L., J.W. Zhang, P.F. Cheng, C. Xu, L. Zhao, and L.J. Wang, Investigation of Ramsey spectroscopy in a lin-par-lin Ramsey coherent population trapping clock with dispersion detection. Optics Express, 2016. 24(5): p. 4532-4541. DOI: 10.1364/oe.24.004532.

J-19.Huang, J.-Q., X.-S. Yan, C.-F. Wu, J.W. Zhang, and L.-J. Wang, Intense source of cold cesium atoms based on a two-dimensional magneto-optical trap with independent axial cooling and pushing. Chinese Physics B, 2016. 25(6): p. 063701. DOI: 10.1088/1674-1056/25/6/063701.

2015

C-10.J.W. Zhang, K. Miao, X. Sun, and L. Wang, Towards a high-performance microwave frequency standard based on113Cd+ions, in 2015 Joint Conference of the IEEE International Frequency Control Symposium and the European Frequency and Time Forum, FCS 2015. 2015: 美国. p. 758-760.

J-18.Miao, K., J.W. Zhang, X.L. Sun, S.G. Wang, A.M. Zhang, K. Liang, and L.J. Wang, High accuracy measurement of the ground-state hyperfine splitting in a Cd-113(+) microwave clock. Optics Letters, 2015. 40(18): p. 4249-4252. DOI: 10.1364/ol.40.004249.

J-17.Jia-Qiang, H., J.W. Zhang, W. Shi-Guang, W. Zheng-Bo, and W. Li-Jun, Temperature and number evolution of cold cesium atoms inside a wall-coated glass cell. Chinese Physics B, 2015. 24(11): p. 113701. DOI: 10.1088/1674-1056/24/11/113701.

2014

C-9.Miao, K., J.W. Zhang, S.G. Wang, and L.J. Wang, Improvement of the signal-to-noise ratio of the clock signal for the frequency standard based on 113Cd + ions, in 2014 Ieee international Frequency Control Symposium. 2014: 中国台湾.

J-16.ZhengBo, W., Z. Lu, W. ShiGuang, J.W. Zhang, W. Bo, and W. LiJun, COMPASS time synchronization and dissemination-Toward centimetre positioning accuracy. Science China Physics,Mechanics & Astonomy, 2014. 57(9): p. 1788-1804. DOI: 10.1007/s11433-014-5508-z.

J-15.J.W. Zhang, S.G. Wang, K. Miao, Z.B. Wang, and L.J. Wang, Toward a transportable microwave frequency standard based on laser-cooled Cd-113(+) ions. Applied Physics B-Lasers and Optics, 2014. 114(1-2): p. 183-187. DOI: 10.1007/s00340-013-5679-8.

J-14.J.W.Zhang, K. Miao, S.G. Wang, and Z.B. Wang, Note: A novel design of a microwave feed for a microwave frequency standard with a linear ion trap. The Review of scientific instruments, 2014. 85(7): p. 76106-76106. DOI: 10.1063/1.4891075.

J-13.Wang, Z.B., J.W. Zhang, S.G. Wang, K. Miao, and L.J. Wang, Laser frequency stability transfer using a fiber-based interferometer. Applied Optics, 2014. 53(15): p. 3283-3286. DOI: 10.1364/ao.53.003283.

2013

C-8.J.W. Zhang, S.G. Wang, K. Miao, Z.B. Wang, H.B. Xue, Y.Y. Feng, and L.J. Wang, High-precision measurement of the ground-state hyperfine splitting of 113Cd + Ions for an atomic clock, in Conference on Lasers and Electro Optics （CLEO:2013）. 2013: 美国.

C-7.J.W. Zhang, S.G. Wang, K. Miao, Z.B. Wang, and L.J. Wang, Preliminary results of the microwave frequency standard based on 113Cd + Ions, in 2013 Joint UFFC, EFTF and PFM Symposium. 2013. p. 239-40.

C-6.J.W. Zhang, S. Wang, K. Miao, Z. Wang, and L. Wang, Progress towards a microwave atomic clock based on the laser-cooled cadmium ions, in.China Satellite Navigation Conference (CSNC) 2013 Proceedings. 2013: 中国. p. 307-313.

C-5.Wang, S., J.W. Zhang, K. Miao, Z. Wang, and L. Wang, High-resolution frequency measurement of the ground-state hyperfine splitting of 113Cd+ ions, in.China Satellite Navigation Conference (CSNC) 2013 Proceedings. 2013: 中国. p. 371-378.

C-4.王正博, 赵路, 王时光, 张建伟, 王波, and 王力军, 北斗系统时频同步初探, in 第四届中国卫星导航学术年会. 2013: 中国.

J-12.Wang, S.G., J.W. Zhang, K. Miao, Z.B. Wang, and L.J. Wang, Cooling and Crystallization of Trapped Cd-113(+) Ions for Atomic Clock. Chinese Physics Letters, 2013. 30(1): p. 13703. DOI: 10.1088/0256-307x/30/1/013703.

J-11.Wang, S.G., J.W. Zhang, K. Miao, Z.B. Wang, and L.J. Wang, High-accuracy measurement of the Cd-113(+) ground-state hyperfine splitting at the milli-Hertz level. OPTICS EXPRESS, 2013. 21(10): p. 12434-12442. DOI: 10.1364/oe.21.012434.

J-10.Wang, S., J.W. Zhang, Z. Wang, B. Wang, W. Liu, Y. Zhao, and L. Wang, Frequency stabilization of a 214.5-nm ultraviolet laser. CHINESE OPTICS LETTERS, 2013. 11(3): p. 031401. DOI: 10.3788/col201311.031401.

2012

C-3.J.W. Zhang, Z.B. Wang, S.G. Wang, K. Miao, and L.J. Wang, A Microwave Frequency Standard Based on the Laser Cooled Cd-113(+) ions, in 2012 European Frequency and Time Forum. 2012: 瑞典. p. 427-427.

C-2.J.W. Zhang, Z.B. Wang, S.G. Wang, K. Miao, B. Wang, and L.J. Wang, Progress Towards A Microwave Frequency Standard Based on The Laser Cooled Cd-113(+) Ions, in 2012 Ieee International Frequency Control Symposium. 2012: 美国.

C-1.Wang, B., C. Gao, W.L. Chen, J.W. Zhang, Y.Y. Feng, T.C. Li, and L.J. Wang, A 10(-18)/day Fiber-Based RF Frequency Dissemination Chain, in 2012 Conference on Lasers and Electro-Optics. 2012: 美国,纽约州.

J-9.J.W. Zhang, Z.B. Wang, S.G. Wang, K. Miao, B. Wang, and L.J. Wang, High-resolution laser microwave double-resonance spectroscopy of hyperfine splitting of trapped Cd-113(+) and Cd-111(+) ions. Physical Review A (atomic, Molecular and Optical Physics), 2012. 86(2): p. 022523. DOI: 10.1103/PhysRevA.86.022523.

J-8.Wang, B., C. Gao, W.L. Chen, J. Miao, X. Zhu, Y. Bai, J.W. Zhang, Y.Y. Feng, T.C. Li, and L.J. Wang, Precise and Continuous Time and Frequency Synchronisation at the 5x10(-19) Accuracy Level. Scientific Reports, 2012. 2: p. 556. DOI: 10.1038/srep00556.

2011

J-7.Wang, B., J.W. Zhang, C. Gao, and L.J. Wang, Highly efficient and isotope selective photo-ionization of barium atoms using diode laser and LED light. OPTICS EXPRESS, 2011. 19(17): p. 16438-16447.

J-6.王正博, 王时光, 张建伟, and 王力军, 离子存储、冷却及在量子频标中的应用. 中国科学:物理学 力学 天文学, 2011(04): p. 350-355.

2010

J-5.Wang, B., J.W. Zhang, Z.H. Lu, and L.J. Wang, Direct measurement of micromotion speed in a linear quadrupole trap. Journal of Applied Physics, 2010. 108(1): p. 13108. DOI: 10.1063/1.3457904.

2007

J-4.J.W. Zhang and D.H. Yang, High performance small optically pumped caesium beam frequency standard. Chinese Physics Letters, 2007. 24(6): p. 1553-1555.

2006

J-3.J.W. Zhang, K.K. Huang, and D.H. Yang, Compact extended cavity diode laser system for small optically pumped cesium beam frequency standards. Chinese Optics Letters, 2006. 4(9): p. 525-528.

J-2.Kai-kai, H., J.W. Zhang, C. Jing-biao, and Y. Dong-hai, Reduce of the linewidth of a diode laser by locking to a high-finesse Fabry-Perot cavity. Chinese Physics Letters, 2006. 23(7): p. 1777-1779.

J-1.Huang, K.K., J.W. Zhang, D.S. Yu, Z.H. Chen, W. Zhuang, and J.B. Chen, Application of electron-shelving detection via 423 nm transition in calcium-beam optical frequency standard. Chinese Physics Letters, 2006. 23(12): p. 3198-3201.

荣誉奖励：

1、2025年，荣获中国计量测试学会科技进步一等奖（排名：1/10）。

2、2025年，荣获德国纽伦堡国际发明展银奖（排名1/3）。

3、2024年，荣获中国发明协会发明创业奖项目奖一等奖（排名1/3），全国发明展览会金奖（排名1/3）。

4、2018年和2020年，以通信作者在时频测量国际顶级会议IEEE IFCS中两次获优秀论文奖，其中2018年为IEEE IFCS历史上首位中国大陆学者获得该奖项，2020年为中国大陆唯一获奖者。

5、2015年。荣获中国计量测试学会科技进步一等奖，超高精度时间频率传输与同步,   (王力军 ; 王波; 李天初; 高超; 张建伟; 冯焱颖; 陈伟亮; 朱玺; 董婧雯; 袁一博)

 

 

 

6、Chinese Physics B “Outstanding Reviewer Awards 2020”奖