【1】刘悦扬.Enhanced Optical Transmission through a Hybrid Bull's Eye Structure Integrated with a Silicon Hemisphere. NANOMATERIALS, 13,2023.

【2】房久凯.Thermally Tunable Structural Color Based on Patterned Ultra-Thin Asymmetric Fabry-Perot Cavity with Phase-Change Material. CRYSTALS, 13,2023.

【3】孙渊博.A wide-angle and TE/TM polarization-insensitive terahertz metamaterial near-perfect absorber based on a multi-layer plasmonic structureNanoscale Advances:4072,2021.

【4】刘自正.High-Q metamaterials based on cavity mode resonance for THz sensing applicationsAIP Advances,2020.

【5】刘笑宇.Tunable Terahertz Metamaterials Based on Anapole Excitation with Graphene for Reconfigurable SensorsACS Applied Nano Materials:2129,2020.

【6】孙恺祥.Terahertz Refractive Index Sensor Based on Enhanced Extraordinary Optical TransmissionCrystals,2022.

【7】李美坪.Tunable plasmon-induced transparency in graphene-based plasmonic waveguide for terahertz band-stop filtersJournal of Optics,2022.

【8】.Amorphous-InGaZnO Thin-Film Transistors Operating Beyond 1 GHz Achieved by Optimizing the Channel and Gate DimensionsIEEE Transactions on Electron Devices:1377,2018.

【9】史胜男.A Tunable Frequency Selective Rasorber with Broad Passband and Low Transmission Loss at X-BandMATERIALS:5787,2023.

【10】.Label-free distinguish proliferative and apoptotic responses of glioma cells with terahertz metamaterialsSENSORS AND ACTUATORS B-CHEMICAL:133887,2023.

【11】.Label-free distinguish proliferative and apoptotic responses of glioma cells with terahertz metamaterialsSENSORS AND ACTUATORS B-CHEMICAL:133887,2023.

【12】史胜男.A Tunable Frequency Selective Rasorber with Broad Passband and Low Transmission Loss at X-BandMATERIALS:5787,2023.

【13】李美坪.Tunable plasmon-induced transparency in graphene-based plasmonic waveguide for terahertz band-stop filters24,2022.

【14】时彦朋.Terahertz Refractive Index Sensor Based on Enhanced Extraordinary Optical TransmissionCrystals,2022.

【15】时彦朋.Enhanced THz Transmission by Bull’s Eye Structure Integrated with a Concentric Gold HemisphereCrystals,2022.

【16】朱叶青.Independently tunable all-dielectric synthetic multi-spectral metamaterials based on Mie resonance. RSC advances, 12:20765-20770,2022.

【17】宋金梅.Enhanced extraordinary terahertz transmission through coupling between silicon resonators. NANOSCALE ADVANCES, 4:2494-2500,2022.

【18】李美坪.Tunable plasmon-induced transparency in graphene-based plasmonic waveguide for terahertz band-stop filters. Journal of Optics (United Kingdom), 24,2022.

【19】张翼飞.Tunable Surface Plasmon Polaritons with Monolithic Schottky DiodesACS Applied Electronic Materials:2124,2019.

【20】周泽鹏.Flexible Liquid Crystal Polymer Technologies from Microwave to Terahertz Frequencies. Molecules, 27,2022.

【21】时彦朋.Manipulating Optical Absorption of Indium Selenide Using Plasmonic NanoparticlesACS Omega:3000,2020.

【22】王汉斌.Two-Terminal InGaAs Microwave AmplifierMICROWAVE AND OPTICAL TECHNOLOGY LETTERS:1884,2018.

【23】花明.Electromagnetically induced transparency analog in terahertz hybrid metal-dielectric metamaterials. AIP ADVANCES, 11,2021.

【24】高梓杰.Tunable Extraordinary Optical Transmission with Graphene in Terahertz. ACS Omega, 6:29746,2021.

【25】徐晶晶.Preliminary Research on Cultivation Program of Biological Microelectronics,2021.

【26】孙渊博.A wide-angle and TE/TM polarization-insensitive terahertz metamaterial near-perfect absorber based on a multi-layer plasmonic structure. Nanoscale Advances, 3:4072,2021.

【27】李美坪.High-Q Fano Resonance in Subwavelength Stub-Wall-Coupled MDM Waveguide Structure and Its Terahertz Sensing Application. IEEE Access , 9:123939,2021.

【28】孙渊博.A wide-angle and TE/TM polarization-insensitive terahertz metamaterial near-perfect absorber based on a multi-layer plasmonic structure3:4072,2021.

【29】宋金梅.Enhanced broadband extraordinary terahertz transmission through plasmon coupling between metal hemisphere and hole arrays. Optical Materials Express, 11:2700,2021.

【30】花明.Electromagnetically induced transparency analog in terahertz hybrid metal–dielectric metamaterials. AIP Advances, 11,2021.

【31】时彦朋.Manipulating Optical Absorption of Indium Selenide Using Plasmonic Nanoparticles. ACS Omega, 5:3000,2020.

【32】凌昊天.Spoof surface plasmon polariton band-stop filter with single-loop split ring resonators. INTERNATIONAL JOURNAL OF RF AND MICROWAVE COMPUTER-AIDED ENGINEERING, 30,2020.

【33】时彦朋.Active Modulation of an All-Dielectric Metasurface Analogue of Electromagnetically Induced Transparency in Terahertz. ACS Omega, 6:4480-4484,2021.

【34】时彦朋.High-Q metamaterials based on cavity mode resonance for THz sensing applications. AIP Advances, 7:075014,2020.

【35】时彦朋.Tunable Terahertz Metamaterials Based on Anapole Excitation with Graphene for Reconfigurable Sensors. ACS Applied nano materials, 3:2129-2133,2020.

【36】时彦朋.Manipulating Optical Absorption of Indium Selenide Using Plasmonic Nanoparticles. ACS Omega, 5:3000-3005,2020.

【37】辛倩, 宋爱民, 王一鸣, 时彦朋 and 张翼飞.Schottky-barrier thin-film transistors based on HfO2-capped InSe. APPLIED PHYSICS LETTERS, 115,2019.

【38】宋爱民, 张翼飞, 时彦朋, 王卿璞 and 王汉斌.Two-terminal InGaAs microwave amplifier. MICROWAVE AND OPTICAL TECHNOLOGY LETTERS, 60:1884,2018.

【39】王一鸣, 辛倩, 宋爱民, 时彦朋, 李玉香 and 王卿璞.Amorphous-InGaZnO Thin-Film Transistors Operating Beyond 1 GHz Achieved by Optimizing the Channel and Gate Dimensions. IEEE Transactions on Electron Devices, 65:1377,2018.

【40】时彦朋.Disorder Improves Light Absorption in Thin Film Silicon Solar Cells with Hybrid Light Trapping StructureInternational Journal of Optics,2016.

【41】时彦朋.Light-absorption enhancement in thin-film silicon solar cells with front grating and rear-located nanoparticle gratingPhys. Status Solidi A,2014.

【42】时彦朋.新型硅薄膜太阳能电池混合陷光结构,2014.

【43】时彦朋.Nanopyramids and rear-located Ag nanoparticles for broad spectrum absorption enhancement in thin-film solar cellsOPTICS EXPRESS,2014.

【44】时彦朋.Extraordinary optical absorption based on diffraction grating and rear-located bilayer silver nanoparticlesApplied Physics Express,2014.

【45】时彦朋.Hybrid light trapping structures in thin-film silicon solar cellsJ. Opt.,2014.

【46】时彦朋.Multilayer silver nanoparticles for light trapping in thin film solar cellsJOURNAL OF APPLIED PHYSICS,2013.