一、科研项目:
1、三维壳状手性超材料电磁特性研究,博士后科学基金。
2、基于超手性Plasmonic纳米结构的SPR生物传感研究,四川省教育厅自然科学基金重点项目。
3、耐高温激光吸收体研究,企事业单位外协项目。
3、基于外在超手性Plasmonic纳米结构的生物分子构象传感,国家自然科学基金青年基金。
4、双层球壳状手性超材料复合氮化镓纳米结构研制,企事业单位外协项目。
5、纳米微腔增强的微量分子手性检测技术,四川省科技厅国际港澳台科技创新合作基金。
6、基础学科拔尖创新人才培养模式研究,四川大学研究生院重点项目。
二、论著:
"Chiral Metamaterials and Their Applications" chapter in the book entitled "Emergent Micro- and Nanomaterials for Optical, Infrared, and Terahertz Applications", edited by Song Sun, Wei Tan and Su-Huai Wei, CRC Press, Florida 2022.
三、近五年部分论文(共发表论文60余篇,一作和通讯作者40余篇):
1. Long-Range Disorder MetaSurface Enabled High-Performance One-Shot Ultraviolet Full-Stokes Polarimeter. Laser & Photonics Reviews 2024: doi.org/10.1002/lpor.202400784.
2. Towards high-performance polarimeters with large-area uniform chiral shells: a comparative study on the polarization detection precision enabled by the Mueller matrix and deep learning algorithm. Optics Express, 2024 32(9): 16414-16425.
3. Origination of the chiroptical effect in plasmonic nano-structures in the view of quasi-normal mode theory. Optics Letters, 2024 49(5): 1149-1152.
4. Engineering high-performance dielectric chiral shells with enhanced chiral fields for sensitive chiral biosensor. Rare Metals, 2024, 43(2): 1197-1206.
5. Stepwise colloidal lithography toward scalable and various planar chiral metamaterials. Rare Metals, 2024, 43(2): 723-735.
6. High precise and broadband full-Stokes polarimeter based on deep learning algorithm. ACS photonics, 2023 10 (7): 2432–2439.
7. Deep learning enables broadband full-Stokes polarimeter with portable fiber optical spectrometer. Optical Letters, 2023 48 (6): 1359-1362.
8. GaN as a Material Platform for Single‐Photon Emitters: Insights from Ab Initio Study. Advanced Optical Materials, 2023: 2202158.
9. Chiral Plasmonic Shells: High-Performance Metamaterials for Sensitive Chiral Biomolecule Detection. ACS Applied Materials & Interfaces 2022, 14(47): 53183–53192.
10. High-Q Circular Dichroism Resonances in Plasmonic Lattices with Chiral Unit Cells. Advanced Functional Materials 2022 32 (40): 2204095.
11. Engineering strong and stable ultraviolet chiroptical effect in large-area chiral plasmonic shell. Optics Express 2022 30 (17): 31486-31497.
12. Perfect Metamaterials Absorber Improved Laser-Driven Flyer. Nanophotonics 2021 10 (10): 2683-2693.
13. Asymmetric chiroptical effect from chiral medium filled golden slit grating on substrate. Optics Letters, 2020, 45(6): 1330-1333.
14. Large-area cavity-enhanced 3D chiral metamaterials based on the angle-dependent deposition technique. Nanoscale, 2020, 12(16): 9162-9170.
15. Giant plasmonically induced circular conversion dichroism in an anisotropic golden slit grating filled by a chiral medium. Physical Review B, 2019, 100(12): 125424.
16. Active perfect absorber based on planar anisotropic chiral metamaterials. Optics express, 2019, 27(5): 6801-6814
17. Hollow Au nanorattles for boosting the performance of organic photovoltaics. Journal of Materials Chemistry A, 2019, 7(47): 26797-26803
18. Quantitative Determination of Contribution by Enhanced Local Electric Field, Antenna-Amplified Light Scattering and Surface Energy Transfer to the Performance of Plasmonic Organic Solar Cells. Small, 2018, 14(30): 1800870.
四、授权发明专利:
1. 光学器件和单向导波结构, ZL 2016 1 0999446.9,发明专利。
2. 手性传感元件、设备,手性表征方法,浓度表征方法,ZL 2016 1 1003481.7,发明专利。
3. 一种基于适度有序偏振响应薄膜的偏振成像器件,ZL 2022 1 0542980.2,发明专利。
4. 一种手性纳米防伪标签,ZL 2022 1 0385468.1,发明专利。
5. 一种暗场散射显微成像和光谱测试系统,ZL 2021 1 0604407.5,发明专利。