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文龙现为 暨南大学纳米光子学研究院 教授,博士生导师,广东省杰出青年基金获得者,广东省企业科技特派员。 2013 年毕业于中科院固体物理研究所获博士学位,随后加入中科院苏州纳米所从事博士后研究工作, 2018 年加入暨南大学至今。长期从事微纳半导体器件和纳米光学方面研究,包括 Ⅲ-Ⅴ 族化合物功率及光电器件、硅基光探测器、硅基调制器等。近年来面向硅基光电集成和片上光学检测应用,聚焦于纳米光学与半导体器件的功能化、片上化集成,如可直接电读出的光学传感器和片上光谱器件等。研究成果入选中国光学十大进展(应用研究类),并被 Nanotech web 、中国科学报、中国光学期刊网等媒体报道。承担项目包括国家自然科学基金 3 项,广东省杰出青年项目、广东省国际合作项目以及多个省部级科研项目;参与国家重点研发项目 1 项;同时与企业开展技术合作,获批多个创新创业类人才项目及技术合作攻关项目。在国际主流 SCI 期刊 Light:Science & Application, Advanced Materials, ACS Nano Laser & Photonics Reviews 等发表论文 50 余篇,总引用超过 1000 次,受 Springer 杂志社邀请撰写多个英文著作章节。


2004-2008 ,南昌大学,物理系,应用物理学微电子方向,学士

2008-2013 ,中国科学院固体物理研究所,半导体材料与器件,博士


2013-2016 中国科学院苏州纳米技术与纳米仿生研究所 ,器件部, 博士后

2016-2017 中国科学院苏州纳米技术与纳米仿生研究所 ,器件部, 副研究员

2018-2020 ,暨南大学,纳米光子学研究院, 副教授

2020 至今,暨南大学,纳米光子学研究院, 教授


1 、光电子器件

2 、微纳光学


[1] L. Wen , Z . Sun, Q. Zheng, X. Nan, Z. Lou, Z. Liu, D. R. S. Cumming, B. Li and Q. Chen*. On-Chip Ultrasensitive and Rapid Hydrogen Sensing based on Plasmon-Induced Hot Electron-Molecule Interaction. Light:Science & Applications

DOI: 10.1038/s41377-023-01123-4 (2023).

[2] Q. Chen*, X. Nan, M. Chen, D. Pan, X. Yang and L. Wen * . Nanophotonic Color Routing, Advanced Materials 33(49): 2103815 (2021).

[3] L. Wen , L. Liang, X. Yang; Z. Liu; B. Li and Q. Chen*. Multiband and Ultrahigh Figure-of-Merit Nanoplasmonic Sensing with Direct Electrical Readout in Au-Si Nanojunctions. ACS Nano 13:6963-6972 (2019).

[4] L. Wen , Q. Chen*, X. Hu, H. Wang, L. Jin and Q. Su. Multifunctional Silicon Optoelectronics Integrated with Plasmonic Scattering Colors . ACS Nano 10, 11076 (2016).

[5] L. Wen , Y. Chen, W. Liu, Q. Su, J. Grant, Z. Qi, Q. Wang and Q. Chen*. Enhanced Photoelectric and Photothermal Responses on Silicon Platform by Plasmonic Absorber and Omni-Schottky Junction. Laser & Photonics Reviews 11, 1700059 (2017).

[6] L. Liang. X. H, L. Wen *, et al. Unity Integration of Grating Slot Waveguide and Microfluid for Terahertz Sensing. Laser & Photonics Reviews 12(11):1800078 (2018).

[7] L. Wen , X. Nan, J. Li, D. R. S. Cumming*, X. Hu* and Q. Chen*. Broad-Band Spatial Light Modulation with Dual Epsilon-Near-Zero Modes. Opto-Electronic Advances 5(6):200093 (2022).

[8] L. Wen , Y. Chen # , L. Liang and Q. Chen*. Hot Electron Harvesting via Photoelectric Ejection and Photothermal Heat Relaxation in Hotspots-Enriched Plasmonic/Photonic Disordered Nano-Composites . ACS Photonics 5(2): 581-591 (2018).

[9] Q. Chen*, L. Liang, Q. Zheng, Y. Zhang, and L. Wen *. On-chip Readout Plasmonic Mid-IR Gas Sensor. Opto-Electronic Advances 3(7): 190040 (2020).

[10] Q. Chen, S. Song, H. Wang, L. Liang, Y. Dong, and Long Wen *. Ultra-Broadband Spatial Light Modulation with dual-resonance coupled Epsilon-near-zero Materials. Nano Research 14 (8) :2673-2680 (2021).

[11] Y. Dong, J. Li, W. Liang, X. Nan; L. Wen *, Q. Chen*. CMOS-Compatible Broad-Band Hot Carrier Photodetection with Cu–Silicon Nanojunctions. ACS Photonics 9(11):3705-3711 (2022).

[12] L. Wen # , J. Li, Y. Dong, Z. Lou, Q. Chen*. High-Efficiency Narrow-Band Plasmonic Hot Electron Conversion from Nanoscale Sodium–Silicon Heterostructures. Journal of Applied Physics 2128:153103 (2020).

[13] X. Li, T, Chen, B. Zhou, G. Liu, T. Shi*, L. Wen * , H. Cao and Y. Wang. Synthesis of Si/SiO2 Core-Shell Nanowire Arrays and Broadband Anti-Reflection Effects in Diluted Si Nanowire Arrays by Adjusting Dielectric Shell Thickness. Nanotechnology 28,185402, (2017).

[14] Z. Qi, Y. Zhai, L. Wen *, Q. Wang *, Q. Chen, et al. Au nanoparticle-Decorated Silicon Pyramids for Plasmon-Enhanced Hot Electron Near-Infrared Photodetection . Nanotechnology 28, 275202, (2017).

[15] L. Wen # , Q. Chen*, S. Song, Y. Yu, L. Jin and X. Hu. Photon Harvesting, Coloring and Polarizing in Photovoltaic Cell integrated Color Filters : efficient energy routing strategies for power-saving displays. Nanotechnology 26:265203 (2015).

[16] L. Wen # , F. Sun, and Q. Chen*. Cascading Metallic Gratings for Broadband Absorption Enhancement in Ultrathin Plasmonic Solar Cells . Applied Physics Letters 104, 151106 (2014).

[17] X. Li, T. Shi, G. Liu, L. Wen * , et al. Absorption Enhancement of GaInP Nanowires by Tailoring Transparent Shell Thicknesses and Its Application in III-V Nanowire/Si Film Two-Junction Solar Cells. Optics Express 23, 25316-25328 (2015) .

[18] W. Wang, X. Li, L. Wen * , G. Liu, T. Shi et al. Optical and Electrical Simulations of Silicon Nanowire Array/Poly(3-hexylthiophene ):Phenyl-C61-Butyric Acid Methyl Ester Hybrid Solar cell. Applied Physics Letters 105, 233115 (2014).

[19] L. Wen # , Q. Chen*, F. Sun, S. Song, L. Jin and Y. Yu. Theoretical Design of Multi-Colored Semi-Transparent Organic Solar Cells with Both Efficient Color Filtering and Light Harvesting. Scientific Reports 4:7036 (2014).

[20] Y. Chen # , L. Wen # , X. Hu, R. Xu, Q. Chen*. Discrete Optical Field Manipulation by Ag-Al Bilayer Gratings for Broadband Absorption Enhancement in Thin-Film Solar Cells . Plasmonics 13(5): 1603-1613 (2017).

[21] Z. Sun, Y. Zhong, Y. Dong, Q. Zheng, Xi. Nan, Z. Liu, L. Wen *; Q. Chen*. Plasmonic Near-Infrared Photoconductor Based on Hot Hole Collection in the Metal-Semiconductor-Metal Junction. Molecules 27(20): 6922 (2022).

[22] L. Wen # and Q. Chen*. Ultra-thin continuous lossy metal film for broad-band light absorption and hot electron collection . Journal of Photonics for Energy 6, 042503 (2016).

[23] Q. Chen*, X. Hu, L. Wen , Y. Yu, D. R. S. Cumming. Nanophotonic Image Sensor , Small 6, 042503 (2016).

[24] L. Wen # , X. Li, Z. Zhao S. Bu and Y. Wang*. Theoretical Consideration of III-V Nanowire/Si Triple Junction Solar Cells . Nanotechnology 23, 505202 (2012).

[25] L. Wen # , Z. Zhao, X. Li* and Y. Wang. Theoretical Analysis and Modeling of Light Trapping in High-Efficiency GaAs Nanowire Array Solar Cells . Applied Physics Letters 99, 143116 (2011).


[1] Xianguang Yang, Long Wen , and Baojun Li, Optical Sources and Waveguides Based on Flexible 1D Nanomaterials. Chapter In: Advanced Nanomaterials. Advances in Material Research and Technology Springer (2021).

[2] Shichao Song, Long Wen , Qin Chen, Graphene Composites based Photodetectors, Chapter in GRAPHENE BASED POLYMER NANOCOMPOSITES IN ELECTRONICS, Springer, ISBN: 978-3-319-13874-9, (2015).


[1] 国家重点研发计划“光电子与微电子器件及集成”专项, 基于混合集成的可重构近红外多波长探测器, 2019YFB2203402 2020.01 2022.12 515 万,参与 (2/20) ,在研;

[2] 国家自然科学基金面上项目 ,基于非金属等离激元材料的硅基近红外热载流子转换研究, 11874029 2019.01 2022.12 64 万,主持,在研;

[3] 国家自然科学基金青年项目 ,表面等离激元金属纳米结构光致电势效应及其传感器应用研究, 11604367 2017.01 2019.12 21 万,主持,结题;

[4] 国家自然科学基金面上项目 ,基于 Tamm 等离极化激元耦合模式的金属 - 半导体 - 金属热电子光电探测器, 11774099 2018.01 2021.12 22/ 62 万,合作,在研;

[5] 广东省杰出青年项目 基于表面等离激元光电传感的片上检测技术 , 2022.01-2025.12, 100 万,主持,在研;

[6] 广东省国际合作项目 基于等离激元光电转换阵列的近红外片上谱仪研究 2021.01-2022.12 50 万,主持,在研;

[7] 广东省科技企业特派员项目 ,红外 LED 芯片光萃取和光衰减机理研究及其性能增益方案, 2020.10-2022.09 18 万,主持,在研;

[8] 徐州市创新创业项目 ,关于 OLED 精细金属蒸镀掩膜版研发与开发, 2017.07 2020.06 30 万,主持,结题;

[9] 江苏省自然科学基金青年项目 基于金属纳米结构的完美吸收体表面光电压行为及其传感器研究, 2016.01 2018.12 20 万,主持,结题;

[10] 苏州产业技术创新专项 ,完美吸收型金属纳米结构的表面光电压行为及其传感器件应用研究, 2015.01 2017.12 ,主持,结题;

[11] 国家自然科学基金面上项目 ,导电金属氧化物薄膜和微纳光学结构复合体系中空间电光调制技术基础问题研究, 61574158 2016.01 2019.12 80.6 万,参与 (2/8) ,结题;

[12] 英国皇家学会牛顿高级学者项目 Integrated Terahertz Sensors 11.1 万英镑,参与,结题


[1] Electric readout optical sensor ,美国发明专利,已授权, US11362233B2 2022-06-14.

[2] 一种光学传感器,中国发明专利,已授权, CN110346326B 2022-11-11.

[3] 一种电读出光学传感器,中国发明专利,已授权, CN109524486 2022-09-23.

[4] 一种便携式光学气体传感器,中国发明专利,已授权, CN111060466B 2023-01-13.

[5] 一种微型光谱测试系统及测试方法,中国发明专利,已授权, CN110261333B 2022-03-25.

[6] 窄带透射滤波器及片上光谱分析与成像系统,中国发明专利,已授权, CN111141385B 2022-05-24.

[7] 一种纳米线激光器及其制备方法,中国发明专利,已授权, CN109273985A 2019-01-25

[8] 基于光栅狭缝波导复合结构的传感器,中国发明专利,已授权, CN110793936B 2021-07-23.

[9] 具有单片集成结构的光电收发芯片、其制作方法与应用,中国发明专利,已授权, CN112151520B 2022-12-20.


《光电子检测技术》、《高等光学》、《高等光子学》


省级青年人才

l 会议分会主席: 2019 2018 PIERS , 2018 AES

l 学术期刊编委: Molecules, J. Nanotech., Sci. Rep., Frontiers in Physics

l 科技项目评审:国家面上和青年项目函评、省市级项目函评和会评专家等

l 企业技术兼职:联创光电、广州光联、深圳同和光电(技术顾问)

l 省科技特派员:深圳同和光电科技有限公司(驻派)

l 中国光学学会、中国电子学会高级会员