专利成果
[1]. 张亚勋,汤晓云,张羽,刘志海,杨军,苑立波. 一种多芯光纤类贝塞尔光束阵列光镊[P]. CN108873171B,2020-06-16.
[2]. 刘志海,林思雨,汤晓云,张亚勋,张羽,杨军,苑立波. 一种基于光纤的光驱动振动马达装置[P]. CN109300570B,2020-04-07.
[3]. 张亚勋,汤晓云,张羽,刘志海,杨军,苑立波. 一种基于光纤光镊的高精度粒径测量装置及测量方法[P]. CN110793450A,2020-02-14.
[4]. 张羽,张瑞伟,汤晓云,张亚勋,刘志海,杨军,苑立波. 一种光纤液体分析装置[P]. CN109406408A,2019-03-01.
[5]. 张羽,刘美江,汤晓云,张亚勋,刘志海,杨军,苑立波. 一种基于微结构光纤的光驱动液体清洁装置[P]. CN109264809A,2019-01-25.
[6]. 张亚勋,汤晓云,刘志海,张羽,杨军,苑立波. 一种基于纳米钻石NV色心的光纤磁场传感器[P]. CN109270478A,2019-01-25.
[7]. 刘志海,张瑞伟,汤晓云,张羽,张亚勋,杨军,苑立波. 一种牵引光束产生装置及产生方法[P]. CN109270695A,2019-01-25.
[8]. 张亚勋,王通,汤晓云,刘志海,张羽,杨军,苑立波. 一种基于波分复用技术的单光纤光镊[P]. CN109254346A,2019-01-22.
[9]. 刘志海,刘超,王露,张亚勋,张羽,杨军,苑立波. 一种双通道边孔光纤光栅传感装置[P]. CN109211839A,2019-01-15.
[10]. 刘志海,王雨杉,魏勇,张羽,张亚勋,赵恩铭,苑立波. 一种基于双芯光纤的液滴悬挂式焦点可调光镊[P]. CN105891943B,2019-01-15.
[11]. 刘志海,李佳鹏,汤晓云,张羽,张亚勋,杨军,苑立波. 一种结合蜘蛛包卵丝的光纤湿度传感器及其制作方法[P]. CN109142271A,2019-01-04.
[12]. 张亚勋,李佳鹏,汤晓云,刘志海,张羽,杨军,苑立波. 一种结合蜘蛛包卵丝的光纤湿度传感器及制作方法[P]. CN109142277A,2019-01-04.
[13]. 张羽,汪德汀,汤晓云,刘志海,张亚勋,杨军,苑立波. 一种光驱动旋转装置[P]. CN109116473A,2019-01-01.
[14]. 张羽,李勇志,汤晓云,刘志海,张亚勋,杨军,苑立波. 一种利用标准单模光纤驱动微小粒子转动的光马达[P]. CN109061868A,2018-12-21.
[15]. 刘志海,刘璐,魏勇,张羽,张亚勋,赵恩铭,苑立波. 一种多通道表面等离子体共振光纤传感探针及测量方法[P]. CN106066312A,2016-11-02.
[16]. 刘志海,朱宗达,魏勇,张羽,张亚勋,赵恩铭,苑立波.分布式表面等离子体共振光纤传感器及用于液体折射率测量的方法[P].CN106066313A,2016-11-02.
[17]. 刘志海,朱宗达,魏勇,张羽,张亚勋,赵恩铭,苑立波. 一种微液滴传感装置及其用于折射率测量的方法[P]. CN106053389A,2016-10-26.
[18]. 赵恩铭,王雨杉,魏勇,刘志海,张羽,张亚勋,苑立波. 基于光纤表面等离子体共振的分布式液体折射率传感装置[P]. CN105866070A,2016-08-17.
[19]. 赵恩铭,陈云浩,刘志海,张亚勋,张羽,苑立波. 分布式表面等离子体共振光纤传感器[P]. CN105092535A,2015-11-25.
[20]. 张羽,王露,赵恩铭,张亚勋,刘志海,苑立波. 基于液滴耦合的光纤分路器[P]. CN105044847A,2015-11-11.
[21]. 赵恩铭,陈云浩,刘志海,张羽,张亚勋,苑立波. 可调谐液体微球激光器[P]. CN104993371A,2015-10-21.
[22]. 张羽,赵莉,赵恩铭,张亚勋,刘志海,苑立波. 一种微纳光纤滤波器[P]. CN104914507A,2015-09-16.
[23]. 刘志海,雷皎洁,张羽,赵恩铭,张亚勋,苑立波. 一种多波长液滴激光器[P]. CN104901150A,2015-09-09.
[24]. 刘志海,徐妍,赵恩铭,张羽,张亚勋,苑立波. 一种双通道分布式传感检测装置[P]. CN104897618A,2015-09-09.
[25]. 刘志海,刘春兰,张羽,张亚勋,赵恩铭,苑立波. 一种自加速类贝塞尔光束的产生装置[P]. CN104898287A,2015-09-09.
[26]. 刘志海,魏勇,张羽,张亚勋,赵恩铭,苑立波. 液滴回音壁模式激光器及其制作方法[P]. CN104852259A,2015-08-19.
[27]. 刘志海,徐妍,张羽,赵恩铭,张亚勋,苑立波. 长周期光纤光栅及制备方法[P]. CN104849799A,2015-08-19.
[28]. 张羽,赵莉,赵恩铭,张亚勋,刘志海,苑立波. 一种基于椭圆芯光纤的单光纤光镊[P]. CN104698532A,2015-06-10.
[29]. 张羽,王真真,赵恩铭,张亚勋,刘志海,苑立波. 一种基于光纤的微小粒子移动装置[P]. CN104698533A,2015-06-10.
[30]. 刘志海,魏勇,赵恩铭,张羽,张亚勋,苑立波. 一种光纤表面等离子体激元激发聚焦装置及其制作方法[P]. CN104698539A,2015-06-10.
[31]. 张羽,赵毓静,赵恩铭,张亚勋,刘志海,苑立波. 一种径向偏振光产生装置[P]. CN104698541A,2015-06-10.
[32]. 刘志海,张亚勋,张羽,赵恩铭,梁佩博,苑立波. 一种光纤微流体驱动装置及驱动方法[P]. CN104675808A,2015-06-03.
[33]. 赵恩铭,刘春兰,张羽,张亚勋,刘志海,苑立波. 一种微小粒子排布装置及其制作方法[P]. CN104678499A,2015-06-03.
[34]. 张羽,赵莉,赵恩铭,张亚勋,刘志海,苑立波. 一种基于光热效应的光纤光开关[P]. CN104678503A,2015-06-03.
[35]. 刘志海,雷皎洁,张羽,赵恩铭,张亚勋,苑立波. 一种光纤光开关[P]. CN104678546A,2015-06-03.
[36]. 刘志海,梁佩博,赵恩铭,张羽,张亚勋,苑立波. 一种微光纤光开关[P]. CN104678594A,2015-06-03.
[37]. 周爱,张亚勋,许全,杨军,苑立波. 一种基于空心环形波导光纤的温度传感器[P]. CN103940530A,2014-07-23.
[38]. 周爱,秦铂洋,张亚勋,杨军,苑立波. 基于空心内壁波导光纤的微环形谐振器及其制作方法[P]. CN103941339A,2014-07-23.
[39]. 周爱,张亚勋,许全,杨军,苑立波. 一种折射率不敏感的光纤温度传感器[P]. CN103852191A,2014-06-11.
发表论文
[1]. Liu Zhihai, Tang Xiaoyun, Zhang Yaxun*, et al. Simultaneous Trapping of Low-Index and High-Index Microparticles Using a Single Optical Fiber Bessel Beam[J].Optics and Lasers in Engineering, 2020, 131: 106119.
[2]. Zhang, Yu; Lin, Siyu; Liu, Zhihai; Zhang, Yaxun*; Zhang, Jianzhong; Yang, Jun; Yuan, Libo. Laser-induced rotary micromotor with high energy conversion efficiency[J]. Photonics research, 2020, 8(4): 534-538.
[3]. Zhang Y, Liu M, Zhang Yaxun*, et al. Simultaneous measurement of temperature and refractive index based on a hybrid surface plasmon resonance multimode interference fiber sensor[J]. Applied Optics, 2020, 59(4): 1225-1229.
[4]. Zhang Y, Li Y, Liu C, Liu Z, Zhang Yaxun*, et al. Dual-channel microfluidic sensor based on side-hole fiber with two long-period fiber gratings[J]. Chinese Optics Letters, 2020, 18 (2): 20601.
[5]. Tang X, Zhang Y, Zhang Yaxun*, et al. All-fiber active tractor beam generator and its application[J]. Journal of Lightwave Technology, 2020, 38(6): 1420-1426.
[6]. Tang X, Zhang Y, Su W, Zhang Yaxun*, et al. Super-low-power optical trapping of a single nanoparticle[J]. Optics letters, 2019, 44(21): 5165-5168.
[7]. Zhang Y, Tang X, Zhang Yaxun*, et al. Optical attraction of strongly absorbing particles in liquids[J]. Optics express, 2019, 27(9): 12414-12423.
[8]. Liu L, Zhang M, Zhang Y*, Zhang Yaxun*. Spider silk-based humidity sensor [J]. Optics Letters, 2019, 44(11).
[9]. Zhang Y, Zhang Yaxun*, Liu Z*, et al. Laser-Induced Microsphere Hammer-Hit Vibration in Liquid[J]. Physical review letters, 2018, 121(13): 133901.
[10]. Liu Z, Yang X, Zhang Y, Zhang Yaxun*, et al. Hollow fiber SPR sensor available for microfluidic chip[J]. Sensors and Actuators B: Chemical, 2018, 265: 211-216.
[11]. Zhang Y, Tang X, Zhang Yaxun*, et al. 3-dimensional dark traps for low refractive index bio-cells using a single optical fiber Bessel beam[J]. Optics letters, 2018, 43(12): 2784-2786.
[12]. Zhang Yaxun, Tang X, Zhang Y, et al. Multiple Particles 3-D Trap Based on All-Fiber Bessel Optical Probe[J]. Journal of Lightwave Technology, 2017, 35(18): 3849-3853.
[13]. Zhang Yaxun, Wang T, Liu Z, et al. Simple and high efficient graded-index multimode fiber tweezers: simulation and experiment[J].Chinese Optics Letters,2017,15(6):061402.
[14]. Zhang Yaxun, Zhang Y, Wang Z, et al. A novel Michelson Fabry–Perot hybrid interference sensor based on the micro-structured fiber [J].Optics Communications, 2016, 374.
[15]. Zhang Yaxun, Zhou A, Qin B, et al. Simultaneous measurement of temperature and curvature based on hollow annular core fiber[J].IEEE Photonics Technology Letters, 2014,26(11):1128~ 1131 .
[16]. Zhang Yaxun, Zhou A, Qin B, et al. Refractive index sensing characteristics of single-mode fiber-based modal interferometers[J]. Journal of Lightwave Technology, 2014, 32(9):1734~1740.
[17]. Zhang Y, Liang P, Wang Y, Zhang Yaxun*, et al. Cascaded distributed multichannel fiber spr sensor based on gold film thickness adjustment approach[J]. Sensors and Actuators A: Physical, 2017, 267: 526-531.
[18]. Liu Z, Liu C, Zhang Y, Zhang Yaxun*, et al. Fiber-Based Helical Channels Refractive Index Sensor Available for Microfluidic Chip[J]. IEEE Photonics Technology Letters, 2017, 29(23): 2087-2090.
[19]. Liu Z, Zhang Yaxun, Zhang Y, et al. All-fiber self-accelerating Bessel-like beam generator and its application[J]. Optical Letters, 2014, 39(21):6185~6188.
[20]. Deng H, Zhang Yaxun, Yuan T, et al. Fiber-based optical gun for particle shooting[J]. ACS Photonics, 2017, 4(3): 642-648.
[21]. Zhou A, Zhang Yaxun, Quan X, et al. Semi-open cavity in-fiber Mach-Zehnder interferometer for temperature measurement with ultra-high sensitivity[J]. Applied Optics, 2014, (12):2696~2701.
[22]. Zhang Y, Lei J, Zhang Yaxun, et al. Microparticles controllable accumulation, arrangement, and spatial shaping performed by tapered-fiber-based laser-induced convection flow[J]. Scientific reports, 2017, 7(1): 14378.
[23]. Zhang Yaxun*, Liu C, Zhang Y, et al. A novel method to generate a self-accelerating Bessel-like beam based on graded index multimode optical fiber[C]. 24th International Conference on Optical Fibre Sensors, OFS 2015, Curitiba, Brazi, 2015.9.28-2015.10.2.
[24]. Zhang Yaxun, Zhou A, Xu Q, et al. Refractive index insensitive temperature sensor based on hollow annular core fiber Mach-Zehnder interferometer[C]. 23rd International Conference on Optical Fibre Sensors, Santander, Spain, 2014.6.2-2014.6.6.
[25]. Zhang Yaxun, Wang L, Liu Z. The polishing detection method of side-polished fiber[C].2011 International Conference on Optical Instruments and Technology: Solid State Lighting and Display Technologies,2011.11.6-2011.11.9.
[26]. Zhang Yaxun*, Tang X, Zhang Y, et al. A Single Optical Fiber Tweezers with High Trapping Efficiency Based on Bessel-like Beams[C]. Asia-Pacific Optical Sensors Conference 2016, Shanghai China, 2016.10.11-2016.10.14.
[27]. Liu Z, Zhang Yaxun, Wang Z, et al. A hybrid Michelson-FP interference fiber sensor[C]. 24th International Conference on Optical Fibre Sensors, OFS 2015, Curitiba, Brazil, 2015.9.28-2015.10.2.
[28]. Liu Z, Tang X, Zhang Y, Zhang Yaxun*, A Non-contact Single Optical Fiber Multi-optical Tweezers Based on Bessel-like Beams[C]. Asia Pacific Optical Sensors Conference, Shanghai China, 2016.10.11-2016.10.14.
[29]. Liu Z, Wang T, Zhang Yaxun, et al. Single fiber dual-functionality optical tweezers based on graded-index multimode fiber[J]. Chinese Optics Letters, 2018, 16(5): 053501.
[30]. Zhang Y, Tang X, Zhang Yaxun*, et al. 3-dimensional dark traps for low refractive index bio-cells using a single optical fiber Bessel beam[J]. Optics letters, 2018, 43(12): 2784-2786.
[31]. Zhu Z, Liu L, Liu Z, Zhang Y, Zhang Yaxun. High-precision micro-displacement optical-fiber sensor based on surface plasmon resonance[J]. Optics Letters, 2017, 42(10): 1982-1985.
[32]. Zhu Z, Liu L, Liu Z, Zhang Y, Zhang Yaxun. Surface-plasmon-resonance-based optical-fiber temperature sensor with high sensitivity and high figure of merit[J]. Optics letters, 2017, 42(15): 2948-2951.
[33]. Liu Z, Liu L, Zhu Z, Zhang Y, Wei Y, Zhang Yaxun, et al. Dual-channel surface plasmon resonance refractive index sensor based on modified hetero-core structure fiber[J]. Optics Communications, 2017, 403: 290-295.
[34]. Liu Z, Zhang Z, Zhang Y, Zhang Yaxun, et al. Absorbing particle 3D trap based on annular core fiber tweezers[J]. Optics Communications, 2019, 437: 399-402.
[35]. Liu Z, Lei J, Zhang Y, Zhang Yaxun, et al. All-fiber impurity collector based on laser-induced microbubble[J]. Optics Communications, 2019, 439: 308-311.
[36]. Zhang Y, Li Y, Zhang Yaxun, et al. HACF-based optical tweezers available for living cells manipulating and sterile transporting[J]. Optics Communications, 2018, 427: 563-566.
[37]. Liu Z, Wu J, Zhang Y, Zhang Yaxun, et al. Optical trapping and axial shifting for strongly absorbing particle with single focused TEM00 Gaussian beam[J]. Applied Physics Letters, 2018, 113(9): 091101.
[38]. Liu Z H, Lei J J, Zhang Y, Zhang Yaxun et al. Microparticle collection for water purification based on laser-induced convection[J]. Chinese Physics B, 2018, 27(5): 054209.
[39]. Zhou A, Qin B, Zhu Z, Zhang Yaxun, et al. Hybrid structured fiber-optic Fabry–Perot interferometer for simultaneous measurement of strain and temperature[J]. Optics letters, 2014, 39(18): 5267-5270.