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朱国栋 讲师

理学院

通讯地址:江苏省镇江市丹徒区长晖路666号江苏科技大学长山校区

个人邮箱:gdzhu@just.edu.cn

邮政编码:212000

办公地点:江科大长山校区1047

传真:

  • 个人简介

  • 研究方向

  • 科研团队

  • 科研项目

  • 获奖动态

  • 教学随笔

  • 教育经历

  • 课程教学

  • 论文著作

  • 科研论文

  • 科研横向项目

  • 科研纵向项目

  • 科研专利

  • 科研动物专利

  • 朱国栋,1996年出生,中共党员,籍贯:江苏省盐城市,20249月获大连理工大学理学博士学位。202412月加入江苏科技大学理学院光电工程系。近年来,主要从事表面等离激元光子学、增强手性探测等方面的研究工作。近年来在Advanced Optical materials、Physical Review A、New Journal of Physics等物理学领域重要学术期刊上发表论文19篇,其中一作论文6篇。

    工作经历:

    2024年-至今,江苏科技大学,讲师

    教育经历:

    2018-2024年,大连理工大学物理学院,光学,理学博士

    2014-2018年,中国矿业大学物理学院,光电信息科学与工程理学学士

    研究方向:

    1.表面等离激元光子学、等离激元手性

        强光学活性手性纳米结构的设计与制备

        等离激元高阶共振光学活性的分析

        等离激元增强手性分子传感

    2.光与物质强相互作用

        等离激元与手性分子强相互作用分析

    3.手性光学力

        特殊光场调控光学活性    

        手性分子的光学筛选

    详细科研工作信息参见:https://orcid.org/0000-0002-8532-1238

    欢迎有志于科研的本科生联系我,一起学习共同进步。




  • 1.表面等离激元光子学、等离激元手性

        强光学活性手性纳米结构的设计与制备

        等离激元高阶共振光学活性的分析

        等离激元增强手性分子传感

    2.光与物质强相互作用

        等离激元与手性分子强相互作用分析

    3.手性光学力

        特殊光场调控光学活性    

        手性分子的光学筛选

    • 论文著作

      [1]Zhu, G., Guo,Y., Dong, B., Fang,Y*. Quantization of Electromagnetic Modes and Angular Momentum on Plasmonic Nanowires[J]. Chinese Phys. B,2020,29:087301.

      [2]Zhu, G.,Sun,Z.,Liu,J.,Fang,Y*.Multipole Analysis of the Extinction Cross Section and Circular Dichroism of Chiral Metamolecules with Optical Theorem[J].Adv.Optical.Mater,2023,11:2202677.

      [3]Zhu, G.,Wei,H.,Sun,Z.,Liu,J.,Wei,X.,Liang,Y,Peng,W., Fang,Y*.Quantitative Analysis of Circular Dichroism at Higher-order Resonance of Extrinsic Plasmonic Chiral Nanostructures Using Multipole Decomposition Combined with the Optical Theorem[J].New Journal of Physics,2023,25:103044.

      [4]Zhu, G., Sun, Z., Zhu T., Peng,W., Fang,Y*. Distinguishing Intrinsic and Extrinsic Chirality via Dynamic Polarizability Tensor Retrieval for Maximum Optical Activity[J].ACS Appl. Opt. Mater,2024,2:1209–1216.

      [5]Zhu, G.,Sun,Z., Zhang, S., Liu, H., Chen, Y., Gao, N., Peng,W., Fang,Y*.Position-Dependent Plasmonic Chirality of Particles in Tightly Focused Light Field[J]. Physical Review A,2024,110:023506.

      [6]Zhu, G.#,Qv, L.#,Guo, Y., Fang,Y*. Ring Gap Resonance Modes on Disk/Film Coupling System Caused by Strong Plasmon Interaction[J].Plasmonics,2022,17:87–93.

      [7]Liu,J.#,Zhu, G.#, Chen, Y., Sun, Z.,Fang,Y*.Uncover the Multipolar Contribution for Plasmonic Activity in Multi-Particle Metamolecules Manipulated with Atomic Force Microscope[J].The Journal of Physical Chemistry C, 2023,127:21603.

      [8]Chen, Y., Gao N.,Zhu, G.,Fang,Y*.Chiral topological whispering gallery modes formed by gyromagnetic photonic crystals [J].Physical Review B, 2023,108:195423.

      [9]Guo, Y., Zhu, G., Bian, W., Dong, B., Fang,Y*.Orbital angular momentum dichroism caused by the interaction of electric and magnetic dipole moments and the geometrical asymmetry of chiral metal nanoparticles[J].Physical Review A, 2020,102:033525.

      [10]Gao N., Zhu, G., Huang, Y., Fang,Y*.Plasmonic hybridization properties in polyenes octatetraene molecules based on theoretical computation [J].Chinese Phys. B, 2023,32:037102.

    • 论文著作

      [1]Zhu, G., Guo,Y., Dong, B., Fang,Y*. Quantization of Electromagnetic Modes and Angular Momentum on Plasmonic Nanowires[J]. Chinese Phys. B,2020,29:087301.

      [2]Zhu, G.,Sun,Z.,Liu,J.,Fang,Y*.Multipole Analysis of the Extinction Cross Section and Circular Dichroism of Chiral Metamolecules with Optical Theorem[J].Adv.Optical.Mater,2023,11:2202677.

      [3]Zhu, G.,Wei,H.,Sun,Z.,Liu,J.,Wei,X.,Liang,Y,Peng,W., Fang,Y*.Quantitative Analysis of Circular Dichroism at Higher-order Resonance of Extrinsic Plasmonic Chiral Nanostructures Using Multipole Decomposition Combined with the Optical Theorem[J].New Journal of Physics,2023,25:103044.

      [4]Zhu, G., Sun, Z., Zhu T., Peng,W., Fang,Y*. Distinguishing Intrinsic and Extrinsic Chirality via Dynamic Polarizability Tensor Retrieval for Maximum Optical Activity[J].ACS Appl. Opt. Mater,2024,2:1209–1216.

      [5]Zhu, G.,Sun,Z., Zhang, S., Liu, H., Chen, Y., Gao, N., Peng,W., Fang,Y*.Position-Dependent Plasmonic Chirality of Particles in Tightly Focused Light Field[J]. Physical Review A,2024,110:023506.

      [6]Zhu, G.#,Qv, L.#,Guo, Y., Fang,Y*. Ring Gap Resonance Modes on Disk/Film Coupling System Caused by Strong Plasmon Interaction[J].Plasmonics,2022,17:87–93.

      [7]Liu,J.#,Zhu, G.#, Chen, Y., Sun, Z.,Fang,Y*.Uncover the Multipolar Contribution for Plasmonic Activity in Multi-Particle Metamolecules Manipulated with Atomic Force Microscope[J].The Journal of Physical Chemistry C, 2023,127:21603.

      [8]Chen, Y., Gao N.,Zhu, G.,Fang,Y*.Chiral topological whispering gallery modes formed by gyromagnetic photonic crystals [J].Physical Review B, 2023,108:195423.

      [9]Guo, Y., Zhu, G., Bian, W., Dong, B., Fang,Y*.Orbital angular momentum dichroism caused by the interaction of electric and magnetic dipole moments and the geometrical asymmetry of chiral metal nanoparticles[J].Physical Review A, 2020,102:033525.

      [10]Gao N., Zhu, G., Huang, Y., Fang,Y*.Plasmonic hybridization properties in polyenes octatetraene molecules based on theoretical computation [J].Chinese Phys. B, 2023,32:037102.

    • 论文著作

      [1]Zhu, G., Guo,Y., Dong, B., Fang,Y*. Quantization of Electromagnetic Modes and Angular Momentum on Plasmonic Nanowires[J]. Chinese Phys. B,2020,29:087301.

      [2]Zhu, G.,Sun,Z.,Liu,J.,Fang,Y*.Multipole Analysis of the Extinction Cross Section and Circular Dichroism of Chiral Metamolecules with Optical Theorem[J].Adv.Optical.Mater,2023,11:2202677.

      [3]Zhu, G.,Wei,H.,Sun,Z.,Liu,J.,Wei,X.,Liang,Y,Peng,W., Fang,Y*.Quantitative Analysis of Circular Dichroism at Higher-order Resonance of Extrinsic Plasmonic Chiral Nanostructures Using Multipole Decomposition Combined with the Optical Theorem[J].New Journal of Physics,2023,25:103044.

      [4]Zhu, G., Sun, Z., Zhu T., Peng,W., Fang,Y*. Distinguishing Intrinsic and Extrinsic Chirality via Dynamic Polarizability Tensor Retrieval for Maximum Optical Activity[J].ACS Appl. Opt. Mater,2024,2:1209–1216.

      [5]Zhu, G.,Sun,Z., Zhang, S., Liu, H., Chen, Y., Gao, N., Peng,W., Fang,Y*.Position-Dependent Plasmonic Chirality of Particles in Tightly Focused Light Field[J]. Physical Review A,2024,110:023506.

      [6]Zhu, G.#,Qv, L.#,Guo, Y., Fang,Y*. Ring Gap Resonance Modes on Disk/Film Coupling System Caused by Strong Plasmon Interaction[J].Plasmonics,2022,17:87–93.

      [7]Liu,J.#,Zhu, G.#, Chen, Y., Sun, Z.,Fang,Y*.Uncover the Multipolar Contribution for Plasmonic Activity in Multi-Particle Metamolecules Manipulated with Atomic Force Microscope[J].The Journal of Physical Chemistry C, 2023,127:21603.

      [8]Chen, Y., Gao N.,Zhu, G.,Fang,Y*.Chiral topological whispering gallery modes formed by gyromagnetic photonic crystals [J].Physical Review B, 2023,108:195423.

      [9]Guo, Y., Zhu, G., Bian, W., Dong, B., Fang,Y*.Orbital angular momentum dichroism caused by the interaction of electric and magnetic dipole moments and the geometrical asymmetry of chiral metal nanoparticles[J].Physical Review A, 2020,102:033525.

      [10]Gao N., Zhu, G., Huang, Y., Fang,Y*.Plasmonic hybridization properties in polyenes octatetraene molecules based on theoretical computation [J].Chinese Phys. B, 2023,32:037102.

  • 2014-2018年 中国矿业大学物理学院 光电信息科学与工程理学学士

    2018-2024年 大连理工大学物理学院 光学(理学博士)

    2025-至今   南京大学电子科学与工程学院 在职博士后