本科生课程：工程光学（1），光电检测技术及系统，光电信息技术科学的现状与展望

研究生课程：光电检测技术，光电检测工程，光电检测技术概论（天津大学国际工程师学院智能建筑专业）

在线课程：光电检测技术及系统（天津大学，负责），科研方法论（南开大学，参与）

科研项目：

1. 国家重点研发计划项目“全光纤非线性单光子显微光谱仪”，负责人
2. 国家重大科学仪器设备开发专项任务 “光纤力热复合测试仪光源解调及探头相关技术研究”，负责人
3. 国家973课题“基于光微流体理论的生物化学光纤传感器的基础研究”，负责人
4. 国家自然科学基金重点项目，“水下多参量光纤传感基础研究”， 负责人
5. 国家自然科学基金面上项目，“高空间分辨率、大动态范围的光纤声波波束形成探测成像理论和方法研究”，负责人
6. 国家自然科学基金面上项目，“高分辨率、宽范围的便携型光纤CARS 显微激发源研究”，负责人
7. 国家自然科学青年基金项目，“基于WGM的多通道光微流体生物传感技术研究”，负责人
8. 国家自然科学基金仪器专项项目，“飞机大气压力光纤传感阵列监测仪” ，主要参加人
9. 国家自然科学基金仪器专项项目，“新型金融印鉴真伪检验仪”，主要参加人
10. 教育部科学技术研究重大项目，“飞机大气压力数据嵌入式系统基础理论及应用研究” 主要参加人
11. 天津市科技支撑计划重点项目，“高精度大气压力光纤传感系统”，负责人
12. 航空工业成都凯天公司光纤传感项目，负责人
13. 航天五院山东航天电子技术研究所光纤传感项目，负责人
14. 航空工业成都凯天公司光纤传感项目，负责人
15. 航天五院山东航天电子技术研究所光纤传感项目，负责人

授权美国和中国专利：

1. Junfeng Jiang，Tiegen Liu，Jinling Yan，Kun Liu，Shuang Wang，Xuezhi Zhang，Chuangjun Zang，Renwei Xie，Qiliang Chu，Fiber Bragg grating demodulation device capable of supressing fluctuations at variable ambient temperature and demodulation methord thereof， US 11181400 B2
2. Jiang Junfeng ，Liu  Tiegen ，Yin  Jinde ，Liu  Kun ，Liu  Yu，High stable fiber fabry-perot pressure sensor with glue-free packing and its fabrication method ，US 9074957 B2
3. J. Jiang，R. Hui，D. Richards，S. Oliva，Measurement of Polarization dependent loss in an optical transmission system，US 8059958 B1
4. Liu Tiegen, Jiang Junfeng, Yang Huijia, Liu Kun,Wang Shuang, Zhang Weihang, Fiber Optical Fabry-Perot Flow Test Device and Test Method with Local Bending Diversion Structure，US 10508938 B2
5. Tiegen Liu，Junfeng Jiang，Jinde Yin，Kun Liu，Shaohua Wang， Swing-style and high signal-to-noise ratio demodulation devices and corresponding demodulation method for the measurement of low coherence interference displacement，US 8958075 B2
6. 江俊峰,刘铁根,马喆,王双,刘琨,陈文杰,张学智, 基于双偏振双边带调制的分布式光纤声传感装置及方法, ZL201810253111.1
7. 江俊峰,刘铁根,马喆,王双,刘琨,陈文杰,张学智,一种数字双啁啾脉冲调制的分布式光纤声传感装置及测量方法，ZL201810012818.3
8. 江俊峰,刘铁根,宋璐瑶,刘琨,王双,尹金德,何盼,多通道高精度光纤光栅传感解调装置及其解调方法,2013,ZL201310099719.0
9. 江俊峰,刘铁根,闫金玲,刘琨,王双,张学智,臧传军,谢仁伟,楚奇梁,环境变温下波动抑制的光纤光栅传感解调装置与解调方法,2016,ZL201610668091.5
10. 江俊峰,刘铁根,谢仁伟,张学智,王双,刘琨,臧传军,楚奇梁,樊晓军,基于低熔点玻璃的新型FBG温度传感器的封装工艺,2017, ZL 201710796664.7
11. 江俊峰,刘铁根,吴凡,刘琨,王双,尹金德,邹盛亮,基于迈克尔逊干涉理论的微型光纤高温传感器及制作方法,2015,ZL201510496982.2
12. 江俊峰,刘铁根,刘琨,尹金德,一种高精度大量程低相干干涉位移解调装置及其解调方法, ZL201010582673.4
13. 江俊峰,刘铁根,尹金德,刘琨,王少华,孟祥娥,王双,秦尊琪,双法-珀光纤压力传感器温度自校正及其制作方法, ZL201210077635.2
14. 江俊峰,刘铁根,王少华,刘琨,尹金德,孟祥娥,基于任意极值的低相干干涉解调方法, ZL201110403032.2
15. 江俊峰,刘铁根,孟祥娥,刘琨,尹金德,王少华,王双,秦尊琪,吴凡,线阵CCD像元级信号增益自补偿方法及补偿电路, ZL201210093677.5
16. 江俊峰,刘铁根,王少华,刘琨,王双,尹金德,孟祥娥,吴凡,秦尊琪,李定杰,基于相位斜率确定单色频率干涉级次的低相干干涉解调方法, ZL201210334925.0
17. 江俊峰,刘铁根,王少华,刘琨,尹金德,孟祥娥,王双,秦尊琪,基于单色频率绝对相位的低相干干涉解调方法, ZL201210077175.3
18. 江俊峰,刘铁根,王少华,刘琨,尹金德,孟祥娥,王双,秦尊琪,吴凡,基于相位斜率定位中心波峰的低相干干涉解调方法, ZL201210086405.2
19. 江俊峰,刘铁根,王少华,刘琨,尹金德,王双,孟祥娥,秦尊琪,吴凡,张以谟,基于标定算法和相移技术的快速、高精度低相干干涉解调方法, ZL201210137690.6
20. 江俊峰,刘铁根,尹金德,刘琨,王双,张以谟,吴凡,秦尊琪,邹盛亮,基于低相干干涉的光纤杨氏干涉光程差解调装置及方法, ZL201210529934.5
21. 江俊峰,刘铁根,王双,刘琨,尹金德,吴凡,秦尊琪,邹盛亮,基于双折射色散的皮米量级位移测量装置及测量方法, ZL201310015107.9
22. 江俊峰,刘铁根,王双,刘琨,尹金德,吴振海,吴凡,秦尊琪,基于色散特征和包络峰值的低相干干涉解调方法,ZL201310164536.2
23. 江俊峰,刘铁根,尹金德,刘琨,王双,吴凡,秦尊琪,宋璐瑶,基于多波长低相干光源的光纤法珀传感器复用方法与装置, ZL201310047987.8
24. 江俊峰,刘铁根,尹金德,刘琨,王双,邹盛亮,秦尊琪,吴凡,基于双折射晶体温度补偿的光纤压力传感器及其制作方法, ZL201310134396.4
25. 江俊峰,刘铁根,尹金德,刘琨,王双,邹盛亮,秦尊琪,吴振海,一种MEMS芯片微腔内部残余压力测量系统及方法, ZL201310631974.5
26. 江俊峰,刘铁根,尹金德,刘琨,邹盛亮,王双,秦尊琪,吴凡,具有多台阶的宽范围光纤真空传感器及其制作方法, ZL201310228911.5
27. 江俊峰,刘铁根,刘琨,徐聪,采用光栅辅助耦合器阵列的多通道光微流体传感器, ZL201010185458.0
28. 江俊峰,惠荣庆,刘铁根,基于波分复用技术的多通道光微流体传感器及传感装置, ZL200910068017.X
29. 江俊峰,刘铁根,刘琨,刘文辉,成像式光微流体传感装置及方法, ZL201110411330.6
30. 江俊峰,刘铁根,刘琨,于哲,姬强,陈文杰,刘文辉,张晶,张以谟,基于有源微管的谐振式光微流体传感装置和方法, ZL201210485535.3
31. 江俊峰,刘铁根,刘琨,张晶,于哲,姬强,陈文杰,涂覆介质层的增强型光微流体传感装置和方法, ZL201210552623.0

1. T. Wang, J. Jiang*, K. Liu, S. Wang, P. Niu, Y. Liu, T. Liu, Flexible minimally invasive coherent anti-Stokes Raman spectroscopy (CARS) measurement method with tapered optical fiber probe for single-cell application，PhotoniX，2022,3:11
2. P. Niu, J. Jiang*, K. Liu, S. Wang, J. Jing, T. Xu, T. Wang, Y. Liu, T. Liu, Fiber-integrated WGM optofluidic chip enhanced by microwave photonic analyzer for cardiac biomarker detection with ultra-high resolution，Biosensors & Bioelectronics，2022,208:114238
3. P. Niu, J. Jiang*, K. Liu, S. Wang, T. Wang, Y. Liu, X. Zhang, Z. Ding, T. Liu, High-sensitive and disposable myocardial infarction biomarker immunosensor with optofluidic microtubule lasing，Nanophotonics，2022,11（14）：3351-3364
4. X. Zhang, H. Sun, J. Jiang*, K. Liu, Z. Li, J. Jin, W. Bo, Y. Yu, T. Liu*, Optical time-series signals classification based on data augmentation for small sample，Science China-Information Sciences，2022,65（12）：229303
5. Z. Wang, Y. Liu, H. Wang, S. Wang, K. Liu, T. Xu*, J. Jiang*, Y. Chen, T. Liu, Ultra-sensitive DNAzyme-based optofluidic biosensor with liquid crystal-Au nanoparticle hybrid amplification for molecular detection，Sensors and Actuators B-Chemical，2022，359：131608
6. Z. Wang, Y. Liu, C. Gong, Z. Yuan, L. Shen, P. Chang, K. Liu, T. Xu*, J. Jiang*, Y. Chen, T. Liu, Liquid crystal-amplified optofluidic biosensor for ultra-highly sensitive and stable protein assay，PhotoniX，2021,2:18
7. X. Zhang, B. Yang, J. Jiang*, K. Liu, X. Fan, Z. Liu, M. Peng, G. Chen, T. Liu*, Side-polished SMS based RI sensor employing macro-bending perfluorinated POF，Opto-Electronic Advances， 2021,4（10）:200041
8. X. Wang, J. Jiang*, S. Wang*, K. Liu, T. Liu*, All-silicon dual-cavity fiber-optic pressure sensor with ultralow pressure-temperature cross-sensitivity and wide working temperature range, Photonics Research, 2021, 9（4）:521-529，
9.  G. Liang, J. Jiang*, K. Liu, S. Wang, T. Xu, W. Chen, Z. Ma, Z. Ding, X. Zhang, Y. Zhang, T. Liu, Phase demodulation method based on a dual-identical-chirped-pulse and weak fiber Bragg gratings for quasi-distributed acoustic sensing，Photonics Research，2020，8(7):1093-1099
10. Z. Ma, J. Jiang*, K. Liu, S. Wang, W. Chen, Y. Zhang, T. Xu, P. Niu, S. Wang, T. Liu, Virtual-block-array phase analysis for distributed acoustic sensors with a high signal-to-noise ratio reconstruction waveform, Optics Express, 2020, 28(17):24577-24585
11.  P. Niu, J. Jiang*, S. Wang, K. Liu, Z. Ma, Y. Zhang, W. Chen,T. Liu, Optical fiber laser refractometer based on an open microcavity Mach-Zehnder interferometer with an ultra-low detection limit, Optics Express, 2020, 28(21):30570-30585
12. Y. N. Zhang, J. F. Jiang*, K.Liu, S. Wang,  Z. Ma,  W. J. Chen, T. G. Liu, Dual-Frequency CARS Excitation Source With Two Independent-Tunable Stokes Wavelengths Using PM-PCF and Vector Adjustment，Journal of Lightwave Technology，2020，38(8): 2392-2399
13. Z. Ma, J. F. Jiang*, S. Wang*, K. Liu, Y. N. Zhang, W. J. Chen, P. P. Niu, S. H. Wang and T. G. Liu，High performance distributed acoustic sensor based on digital LFM pulse coherent-optical time domain reflectometer for intrapulse event, Applied Physics Express,2020，13(1): 012016
14. W. J. Chen, J. F. Jiang*, S. Wang*, K. Liu, Z. Ma, G. H. Liang, Z. Y. Ding, Y. N. Zhang, P. P. Niu and T. G. Liu, Hybrid demodulation method for distributed acoustic sensing based on coherent detection and pulse pair, Applied Physics Express, 2020，13(1): 012012
15. R. D. Wang, S. Wang*, J. F. Jiang*, K. Liu, X. Wang, X. Z. Zhang, Z. Y. Ding, C. Wang and T. G. Liu, Fringe-Distortion-Correction for Polarized Low-Coherence Interferometry With Phosphor-Based LED, Journal of Lightwave Technology, 2019，37(14): 3557-3562
16. X. G. Qi, S. Wang*, J. F. Jiang*, K. Liu, X. Wang, Y. G. Yang and T. G. Liu, Fiber Optic Fabry-Perot Pressure Sensor With Embedded MEMS Micro-Cavity for Ultra-High Pressure Detection, Journal of Lightwave Technology, 2019，37(11): 2719-2725
17. X. J. Fan, J. F. Jiang*, X. Z. Zhang*, K. Liu, S. Wang and T. G. Liu, Multimode interferometer-based torsion sensor employing perfluorinated polymer optical fiber,  Optics Express, 2019，27(20): 28123-28132
18. X. Wang, S. Wang*, J. F. Jiang*, K. Liu, P. Zhang, W. Wu and T. G. Liu,  High-accuracy hybrid fiber-optic Fabry-Perot sensor based on MEMS for simultaneous gas refractive-index and temperature sensing,  Optics Express, 2019，27(4): 4204-4215
19. X. J. Fan, J. F. Jiang*, X. Z. Zhang*, K. Liu, S. Wang, Y. N. Yang, F. Sun, J. D. Zhang, C. H. Guo, J. S. Shen, S. C. Wu and T. G. Liu, Self-marked HCN gas based FBG demodulation in thermal cycling process for aerospace environment,  Optics Express, 2018，26(18): 22944-22953
20. X. J. Fan, J. F. Jiang*, X. Z. Zhang*, K. Liu, S. Wan and T. G. Liu，Simultaneous measurement of refractive index and temperature using a hybrid-grating sensor，Applied Physics Express，2019，12(11) :116501
21. J. F. Jiang, Z. X. Zhao, S. Wang*, K. Liu, Y. Huang, C. X. Shan, H. Xiao and T. G. Liu, Optical fiber Fabry-Perot interferometer based on phase-shifting technique and birefringence crystals, Optics Express, 2018，26(17): 21606-21614
22. S. Wang, J. S. Zhang, J. F. Jiang*, K. Liu, X. Wang, X. Z. Zhang, Z. Y. Wu, J. Zhou, H. Xiao and T. G. Liu, Position-deviation-compensation demodulation method for multi-channel polarized low-coherence interferometry, Optics Express, 2018，26(13): 17407-17417
23. Jiang Junfeng，Xiao Mengnan，Wang Shuang*，Liu Kun，Wang Xue，LiuTiegen, Polarized low-coherence interferometer based on a matrix CCD and birefringence crystal with a two-dimensional angle , Optics Express, 2017，25(14): 15977~15986
24. Jiang Junfeng，Zhang Tianhao，Wang Shuang*，Liu Kun*，Li  Chao，Zhao Zixu，Liu Tiegen, Noncontact Ultrasonic Detection in Low-Pressure，Carbon Dioxide Medium Using High Sensitivity Fiber-Optic Fabry-Perot Sensor System , Journal of Lightwave Technology, 2017, 35(23): 5079~5085
25. Shuang Wang, Junfeng Jiang*, Tiegen Liu, Kun Liu, Jinde Yin, Junfeng Shi, Shengliang Zou,  Mingjiang Zhang, Birefringence-Dispersion-Induced Frequency Domain Nonlinearity Compensation for Polarized Low-Coherence Interferometry Demodulation, Journal of Lightwave Technology, 2015, 33(23): 4842-4848
26. T. G. Liu, J. D. Yin, J. F. Jiang*, K. Liu, S. Wang and S. L. Zou,  Differential-pressure-based fiber-optic temperature sensor using Fabry-Perot interferometry,  Optics Letters, 2015, 40(6) :1049-1052
27. S. Wang, T. Liu, J. Jiang*, K. Liu, J. Yin, Z. Qin and S. Zou,  Zero-fringe demodulation method based on location-dependent birefringence dispersion in polarized low-coherence interferometry,  Optics Letters, 2014, 39(7) : 1827-1830
28. Jinde Yin, Tiegen Liu, Junfeng Jiang*, Kun Liu, Shuang Wang, Fan Wu and Zhengyang Ding, Wavelength-division-multiplexing method of polarized low-coherence interferometry for fiber Fabry-Perot interferometric sensors, Optics Letters,2013, 38(19):3751-3753
29. S. Wang, T. Liu, J. Jiang*, K. Liu, J. Yin and F. Wu, Birefringence dispersion compensation demodulation algorithm for polarized low-coherence interferometry, Optics Letters,2013, 38(16): 3169-3172
30. J. Jiang*, S. Wang, T. Liu, K. Liu, J. Yin, X. Meng, Y. Zhang, S. Wang, Z. Qin, F. Wu and D. Li，A polarized low-coherence interferometry demodulation algorithm by recovering the absolute phase of a selected monochromatic frequency， Optics Express,  2012，20(16):18117-18126
31. S. Wang, J. Jiang*, T. Liu, K. Liu, J. Yin, X. Meng and L. Li, A Simple and Effective Demodulation Method for Polarized Low-Coherence Interferometry, IEEE Photonics Technology Letters, 2012,24(16):1390-1392