王骁乾

王骁乾
华东理工大学物理学院 副教授
电话:xxxxxx
邮箱:xqwang@ecust.edu.cn
微信:xxxxxx
地址: 华东理工大学实验二楼物理学院209
上海市梅陇路130号
个人简历
……
教育经历
| 2009 - 2014 | 香港科技大学,电子及计算机工程系,博士 |
| 2006 - 2009 | 复旦大学,物理系,硕士 |
| 2002 - 2006 | 复旦大学,物理系,学士 |
主持的科研项目
| 2020 - 2022 | 应用光学国家重点实验室开放课题 |
| 2018 - 2020 | 国家自然科学青年基金 |
| 2016 - 2018 | 上海市浦江人才计划 |
研究方向
液晶微纳结构及光子器件:
- 液晶微纳结构加工
- 液晶几何相位光学元件
- AI辅助液晶测试系统
- 光与物质相互作用
- 先进教学仪器开发
学术成果
- “A simple polarimetric measurement based on a computational algorithm,”Optics Letters, 48(15), 4085-4088, (2023).
- “Collecting, transporting and sorting micro-particles via the optical slings generated by a liquid crystal q(φ)-plate,” Optics Express, 31(4), 5736-5746, (2023).
- “Light Reconfigurable Topological Optical Phase Structure Enabled by a Photoresponsive Chiral System,” Advanced Optical Materials, 11(8), 2202529, (2023).
- “Real-time measurement of the current–voltage characteristics of a solar cell for laboratory experiment,” Physics Education, 58, 055021, (2023).
- “Wavelength-adaptive optical angular momentum recognizer via programmable soft materials,” Journal of Materials Chemistry C, 11,5307-5315, (2023).
- “LCP/TLC based composite multi-dimensional polarization-dependent anti-counterfeiting device,” Acta Physica Sinica, 72, 174206, (2023).
- “A long-term stable low-viscous self-organized blue phase liquid crystal superstructure with wide operation temperature range,” Liquid Crystals, 49(2), 192–200, (2022).
- “Cholesteric Soft Matter Molded Helical Photonic Architecture toward Volatility Monitoring of Organic Solvent,” Advanced Photonics Research, 2(8),2100018, (2021).
- “Colour generation for optically driving liquid crystal display,” Liquid Crystals,47(12), 1729–1734, (2020).
- “Photoaligning and Photopatterning: New LC Technology,” Crystals, 10, 323,(2020).
- “Ferroelectric liquid crystals for fast switchable circular Dammann grating,”Chinese Optics Letters, 18(8), 080002, (2020).
- “Light-rewritable geometric phase and reflectance modulations enabled by pattern-aligned photoresponsive liquid crystal superstructures,” Liquid Crystals, 47(2), 255–262, (2020).
- “Electrically tunable helicity of cholesteric heliconical superstructure,” Chinese Optics Letters, 18(8), 080005, (2020).
- “Generation of arbitrary vector vortex beams on hybrid-order Poincaré sphere based on liquid crystal device,” Optics Express, 27(6), 8596-8604, (2019).
- “Low-voltage-driven smart glass based on micro-patterned liquid crystal Fresnel lenses,” Applied Optics, 58(4), 1146, (2019).
- “Micro-patterned liquid crystal Pancharatnam–Berry axilens,” Chinese Optics Letters, 16(6), 062301, (2018).
- “Bifocal Optical-Vortex Lens with Sorting of the Generated Nonseparable Spin-Orbital Angular-Momentum States,” Physical Review Applied, 7, 034010, (2017).
- “Light-Driven Liquid Crystal Circular Dammann Grating Fabricated by a Micro-Patterned Liquid Crystal Polymer Phase Mask,” Polymers, 9, 380, (2017).
- “Switchable Fresnel lens based on hybrid photo-aligned dual frequency nematic liquid crystal,” Optical Materials Express, 7(1), 8-15, (2017).
- “Light-Patterned Crystallographic Direction of a Self-Organized 3D Soft Photonic Crystal,” Advanced Materials, 1703165, (2017).
- “Lasing of self-organized helical cholesteric liquid crystal micro-droplets based on emulsification,” Optical Materials Express, 6(4), 1256-1261, (2016).
- “Electrically/optically tunable photo-aligned hybrid nematic liquid crystal Dammann grating,” Optics Letters, 41(24), 5668-5671, (2016).
- “Liquid crystal Fresnel lens display,” Chinese Physics B, 25(9), 094215,(2016).
- “Micro-patterned photo-aligned ferroelectric liquid crystal Fresnel zone lens,”Optics Letters, 40(8), 1643-1646, (2015).
- “Liquid crystal Fresnel zone lens based on single-side-patterned photoalignment layer,” Applied Optics, 53(10), 2026-2029, (2014).
- “Switchable Fresnel lens based on micro-patterned alignment,” Optics Letters 38(11), 1775-1777, (2013).
- “Autostereoscopic 3D pictures on optically rewritable electronic paper,”Journal of the SID 21(2), 103, (2013).
- “Evaluation of LC Fresnel phase plate utilized as color filter,” Molecular Crystals and Liquid Crystals 559, 228, (2012).
- “A comparison of tissue penetrations between single and two-photon-excitations,” Applied Physics Letters 95, 143705, (2009).
- “Light distribution in the erythrocyte under laser irradiation: a finite difference time-domain (FDTD) calculation,” Applied Optics 47(22), 4037-4044, (2008).
