姓名：王焕钦
地址：科学岛
类型：博导
所在科研单元：智能机械所


导师介绍



王焕钦，男，1982年生，博士，中国科学院合肥物质科学研究院智能机械研究所研究员，博士生导师。2004年本科毕业于中国科学技术大学物理系，获应用物理专业学士学位，2009年在中国科学技术大学获微电子学与固体电子学专业博士学位。现为中国光学学会光电技术专业委会理事、中国仪器仪表学会光机电集成分会理事、安徽省电子学会理事及安徽省电子学会检测与控制技术专业委员会专家委员。主要从事光电传感与成像、环境颗粒物监测技术等研究工作，具体包括大气细/超细颗粒物（PM2.5、PM0.1等）检测、水质颗粒物（浊度、粒径等）检测、单光子探测、激光测距及三维成像技术研究等；先后主持国家重点研发计划课题、国家自然基金面上和青年基金、中科院重点部署项目课题、国家自然基金重大研究计划子课题、中科院B类先导专项子课题及航天一院预研创新基金等多个科研项目；在IEEE Trans. on Instru. & Meas., Measurement, Opt. & Las. Tech.等期刊及SPIE, OSA, IEEE会议上共发表论文40余篇，申请和授权发明专利30余项。欢迎电子、机械、光学、精仪、自动化及检测技术等专业的研究生加入我们的研究团队。

Introduction



Huanqin Wang, male, born in 1982, Ph.D., Professor and Ph.D. supervisor. He received his B.S. degree in applied physics in 2004 and the Ph.D. degree in microelectronics and solid state electronics in 2009, both from University of Science and Technology of China. At present, He is the director of Opto-Electronic Technology Professional Committee, COS and Opto-Electronic-Mechanical Technology & System Integration Chapter, CIS and Anhui Electronics Society. His research interests focus on photoelectric sensing and imaging, environmental particle sensing technology, including the detection of fine/ultrafine particles in the atmosphere and water, single-photon detection, laser ranging and 3D imaging. He was in charge of several projects from National Natural Science Fund, National Key Research and Develop Program of China, Key Research Program and Strategic Priority Research Program of CAS, etc. He has published more than 40 papers and applied 30 patents for inventions. His research interests mainly focus on optical sensing, including particle monitoring, single photon detection, laser ranging finder and 3D imaging. Students who major in electrical engineering, mechanical design, optics and automation control are welcomed.

研究领域



主要研究方向为光电传感与成像、环境光学传感技术等方面的研究与应用，主要包括大气细/超细颗粒物（PM2.5、PM0.1等）检测、水质颗粒物（浊度、粒径等）检测、单光子探测、激光测距及三维成像技术研究等。

招生专业



博士招生计划：          1、专业：检测技术与自动化装置招生方向：智能检测技术学术硕士招生计划：          1、专业：模式识别与智能系统（硕士）招生方向：机器学习专业学位硕士招生计划：          1、专业：电子信息（专硕）招生方向：光电检测技术工程管理硕士招生计划：          1、专业：工程管理（专硕）招生方向：光学工程管理工程博士招生计划：          1、专业：电子信息招生方向：电子信息博士招生计划：          1、专业：检测技术与自动化装置招生方向：光电检测技术          2、专业：精密仪器及机械招生方向：智能检测与传感器学术硕士招生计划：          1、专业：检测技术与自动化装置（硕士）招生方向：信号检测与处理          2、专业：精密仪器及机械（硕士）招生方向：智能检测与传感器专业学位硕士招生计划：          1、专业：机械（专硕）招生方向：机电一体化系统技术          2、专业：电子信息（专硕）招生方向：智能检测技术工程管理硕士招生计划：          1、专业：工程管理（专硕）招生方向：环境工程管理          2、专业：工程管理（专硕）招生方向：光学工程管理工程博士招生计划：          1、专业：电子信息招生方向：电子信息博士招生计划：          1、专业：检测技术与自动化装置招生方向：光电检测技术          2、专业：环境科学与工程招生方向：环境监测仪器设备学术硕士招生计划：          1、专业：环境科学与工程（硕士）招生方向：环境监测仪器设备          2、专业：检测技术与自动化装置（硕士）招生方向：光电检测技术专业学位硕士招生计划：          1、专业：资源与环境（专硕）招生方向：环境监测仪器设备          2、专业：电子信息（专硕）招生方向：智能检测技术

研究成果



(1) Mingjie Chen, Huanqin Wang*, Qiang Sun,et al. Simulation of Miniature PDMA for Ultrafine-Particle Measurement, Atmosphere,10(3),116, 2019
(2) Huanqin Wang*，Juntao Hu, Wei Wan, et al. A wide dynamic range and high resolution all-fiber-optic turbidity measurement system based on single photon detection technique, Measurement, vol.134, pp.820-824, 2019.
(3) Wei Wan, Huanqin Wang*, Deyi Kong, et al. A wide range fiber turbidity sensor based on single photon detection technique with an optimal optical power, Proceeding of SPIE 10847, 108470V, 2018.
(4) Huaqiao Gui, Huanqin Wang*, Wei Wan, Fajun Yu, Jianguo Liu, Liang Lü. Development of a fiber-optic particle size measurement system based on dynamic light scattering technique, Proceedings of Light, Energy and the Environment, JT2A.24, 2018.
(5) Y. Y. Cao, H. Q. Wang*, et al. Design and performance evaluation of a small unipolar aerosol charger system, IOP Conf. Series: Earth and Environmental Science, 69, 012174, 2017.
(6) H. Gui, H. Wang*, et al, "Development of a new Portable Ultrafine Particle Sizer for Indoor Aerosol Monitoring," in Light, Energy and the Environment, OSA Technical Digest (online), paper JW5A.16, 2017.
(7) Huanqin Wang*, Yixin Yang et al. “Instrument for real-time measurement of low turbidity by using time-correlated single photon counting technique,” IEEE Transactions on Instrumentation and Measurement, vol.64, No.4, pp. 1075-1083, 2015.
(8) Huanqin Wang*, Yangyang Cao, et al. “Real-time Low Turbidity Measurement System Based on Single Photon Counting Techniques,” Light, Energy and the Environment Congress, Suzhou, JTu5A20, 2015.
(9) Yixin Yang, Huanqin Wang*, et al. “The design of rapid turbidity measurement system based on single photon detection techniques,” Optics and Laser Technology, vol.73, pp.44-49, 2015.
(10) Xiuhua Duan, Huanqin Wang*, et al. “Sound absorption of a flexible micro-perforated panel absorber based on PVDF piezoelectric film,” Applied Acoustics, vol. 88, pp. 84-89, 2015.
(11) Huanqin Wang*, Yixin Yang, et al. “Optimized design of a TOF laser range finder based on time-correlated single photon counting,” Proceeding of SPIE, vol.9276, p.92760A, 2014.
(12) Yixin Yang, Huanqin Wang*, et al. “A high resolution laser ranging system based on time-correlated single photon counting technology,” Proceeding of SPIE, vol.9297, p.92970H, 2014.
(13) Xiuhua Duan, Huanqin Wang*, et.al. “The structural design of combined absorber composed by MPP and multi-layer porous material based on VAOne,”Advanced Material research, vol.571, pp91-96, 2012.
(14) Huanqin Wang*, Ying Wang, et.al. “Optimized design of a LED-array-based TOF range imaging sensor for fast 3-D shape measurement”, Proceeding of SPIE, vol.8192, p.81922R, 2011.
(15) Huanqin Wang*, Jun Xu, et.al. “Real-time range imaging system based on a light-emitting diode array phase-shift range finder for fast three-dimensional shape acquisition”, Optical Engineering, vol.49, No.7, p.073201 2010.
(16) Huanqin Wang*, Jun Xu, et.al. “A LED-array-based range imaging system used for enhancing three-dimensional imaging”, Proceeding of SPIE, vol.7850, p.78501E, 2010.
(17) Huanqin Wang*, Deyi Kong, et.al. “A LED-Array-Based Range Imaging System with Time-to-Digital Converter for 3D Shape Acquisition”, Proceeding of the 3rd International Congress on Image and Signal Processing, vol.4, pp.2003-2007, 2010.