长期致力于复杂声场操控、声学功能器件及声学功能结构开发、声学信号与信息处理等领域的研究。先后主持国家自然科学基金、省部级项目及中国科学院等各类科研项目10余项。入选多项人才计划及“全球前2%顶尖科学家”年度榜单。已在Nature Sustainability等国际期刊及学术会议上发表高水平论文80余篇，出版学术专著1部，申请国家发明专利10余项。同时担任多个期刊的编委、青年编委、客座编辑及审稿人。

招生专业

诚招声学、信号处理、电子信息等专业硕士和博士研究生、科研助理及博士后。期待你的加入，欢迎邮件咨询！

招生方向

智能声学材料；噪声与振动控制；拓扑优化；机器学习；振动能量俘获；机器人；声源定位；声学超材料；波动力学

2013-09--2018-05   美国圣母大学   博士

2025-07~现在, 中国科学院声学研究所, 研究员

2026-10~至今 中国微米纳米技术学会，理事

2023-10~至今 安徽省计量测试学会，理事

   

[83] B. Su, Y. Zhao, W. Wang, L. Zhao#, J. Wang (2026): Effects of momentum ratio on thermal mixing in a horizontal T-junction under rolling motion conditions, Applied Thermal Engineering, 308(1), 133337. (通讯作者)

[82] Z. Bi, Z. Li, Y. Ren, Y. Peng, X. Zhu, L. Zhao#, J. Yang, C. Bi (2026): Passive Metasurface Tweezers for Multi-Scale Orbital Transport and Trapping on Elastic Plates, Advanced Science, 13(72), e77631. (通讯作者)

[81] Z. Bi, Z. Li, J. Yang, L. Zhao#, C. Bi (2026): Flexural wave beam steering with grafted circular phase-gradient metasurface, Engineering Structures, 368, 123680. (通讯作者)

[80] J. Wang, Y. Ren, J. Yang, L. Zhao# (2026): Flexural wave beamforming lenses based on conformal mapping and variable thickness design, Physica Scripta, 101, 355077. (通讯作者)

[79] Z. Li, Z. Bi, Y. Zhang, J. Yang, L. Zhao# (2026): Elastic metasurfaces for flexural wave OAM perception and encoding, International Journal of Mechanical Sciences, 326, 111888. (通讯作者)

[78] L. Zhao#, Z. Xiong, X. Zhuang, Q. Liu, J. Wang (2026): Tunable flexural wave beamforming based on the coupled acoustic vortex with structural Luneburg lens, Mechanical Systems and Signal Processing, 257, 114596. (通讯作者)

[77]  W. Wu, Y. Zhang, L. Zhao, T. Chen (2026): A sector-shaped acoustic metamaterial for broadband and wide-angle sound absorption, Journal of Applied Physics, 140, 065105.

[76] J. Wang, Z. Xiong, Y. Zhang, J. Yang, L. Zhao# (2026): Enhanced elastic wave imaging with asymmetric Maxwell fish-eye lens, Smart Materials and Structures, 35(5), 055020. (通讯作者)

[75] Q. Liu, Z. Xiong, L. Zhao# (2026): The generation of broadband elastic Airy beam based on partitioned acoustic black hole metasurface, Physics Letters A, 585, 131680. (通讯作者)

[74] H. Guo, L. Zhao, C. Bi (2026): Study on the longitudinal-radial coupled vibration of cascade cylindrical piezoelectric transducers, Journal of Vibration and Acoustics, 1-22.

[73] Z. Xiong, L. Zhao# (2026): Broadband sound absorption using porous structures with embedded acoustic black holes, MechanoEngineering, 1, 024702. (通讯作者)

[72] L. Zhao#, Q. Liu, J. Wang, Z. Xiong, X. Zhuang (2026): Broadband flexural wave focusing based on partitioned acoustic black hole, Physica Scripta, 101, 145004. (通讯作者)

[71] H. Tian, W. Fan, L. Zhao#, J. Wang (2026): Shark skin-inspired protrusions for enhancing flutter piezoelectric energy harvesting, International Journal of Mechanical Sciences, 318, 111529. (通讯作者)

[70] S. Zhou, H. Liu, S. Zhao, Y. Du, Z. Wang, A. Moomaw, A. P. Dunuwila, L. Zhao (2026): Texture-driven fringe pattern evaluation in shearography based on gray-level co-occurrence matrices, Measurement Science and Technology, 37, 085203.

[69] Y. Ren, Y. Chen, J. Yang, L. Zhao# (2026): Two-dimensional flexural wave vortices based on ring-shaped and partitioned acoustic black hole metasurface, The Journal of the Acoustical Society of America, 159 (3), 1805-1812. (通讯作者)

[68] H. Xu, Z. Sun, L. Zhao, Y. Chen, J. Yang (2026): Luneburg cloak with pentamode metafluid, Wave Motion, 143, 103721.

[67] L. Zhao, X. Zhuang, Z. Xiong, Z. Tian (2026): Enhanced acoustic imaging with solid immersion Luneburg lens, Measurement, 265, 120335.

[66] Z. Xiong, T. Liu, L. Zhao#, C. Bi (2026): Broadband enhanced-resolution imaging based on a solid-immersion square Maxwell’s fish-eye lens, Physical Review Applied, 25, 024042. (通讯作者)

[65] W. Wu, Y. Zhang, L. Zhao, T. Chen, Y. Wang (2026): Sonic black hole coupled with membrane-type acoustic metamaterial for broadband and low-frequency sound absorption, Mechanical Systems and Signal Processing, 246, 113932.

[64] L. Li, T. Chen, L. Zhao, C. Bi (2026): Enhanced far-field acoustic signal detection via a deep subwavelength Fabry-P´erot resonator coupled with space-coiling metamaterial, Mechanical Systems and Signal Processing, 244, 113745.

[63] Z. Xiong, T. Liu, L. Zhao#, C. Bi (2026): Square Maxwell fish-eye lens for flexural wave control based on conformal transformation method, Smart Materials and Structures, 35, 015017. (通讯作者)

[62] Z Sun, H Xu, Y Du, C Li, Y Liu, L Zhao#, J Yang (2026): Conformal Mikaelian lens for flexural wave self-focusing, bending, non-diffraction Talbot effects, vibration reduction and energy harvesting, Journal of Sound and Vibration, 621, 119464. (通讯作者)

[61] J Li, J Lin, Y Pu, L Zhao#, J Wang (2025): Flow-induced vibration energy harvesting performance enhancing with venturi slit modulation effect, Energy, 341, 139479. (通讯作者)

[60] W. Wu, Y. Zhang, L. Zhao, L. Xu, T. Chen (2025): Spiral Acoustic Metamaterial Coupling Local Resonance and Bragg Scattering for Ducted Fan Noise Mitigation, Advanced Materials Technologies, 10(21), e00977.

[59] 庄旭旭, 熊子祥, 郭浩, 孙兆永, 赵流现# (2025): 三周期极小曲面声学超材料隔声性能分析, 应用声学,44(6), 1607-1613. (通讯作者)

[58] L Zhao#, Z Xiong, X Zhuang, Q Liu, J Wang (2025): An Ultra-Broadband Sound Insulation Based on Helmholtz Resonator Acoustic Metamaterial, Physics Letters A, 553, 130721. (通讯作者)

[57] Q Liu, X Xiao, L Zhao, S Shi, K Li, T Luo, M Liu (2025): Carbonation mechanism of unsaturated ettringite-rich cements: a diffusion-reaction model approach, Journal of Sustainable Cement-Based Materials, 14(5), 921-935.

[56] Y Liu, S Dou, Y Du, R Liang, S Yue, L Zhao, F Liu, Z Sun, J Yang (2025): Enhanced broadband low-frequency performance of negative Poisson’s ratio metamaterials with added mass, Scientific Reports, 15(1), 13838.

[55] W Wu, Y Zhang, L Xu, L Zhao, T Chen (2025): Design and evaluation of an acoustic metamaterial for ducted fan noise control, Applied Acoustics, 233, 110612.

[54] H Bao, J Tao, J Yang, B Cao, L Zhao# (2025): Design optimization of vibration amplitude reduction based on virtual prototype and machine learning, Sound & Vibration, 59(1), 2048-2048. (通讯作者)

[53] Z Xiong, X Zhuang, Z Sun, L Zhao# (2025): Coupled Helmholtz resonators for broadband Aeroacoustic noise mitigation, Sound & Vibration, 59(1), 1702-1702. (通讯作者)

[52] Z Li, K Liu, C Li, Y Liu, Y Du, T Li, Z Sun, L Zhao#, J Yang (2024): Active encoding of flexural wave with non-diffractive Talbot effect, Scientific Reports, 14(1), 22573. (通讯作者)

[51] L Zhao, C Li, X Zhuang, H Guo, Y Liu (2024): Super-resolution imaging based on modified Maxwell's fish-eye lens, Mechanical Systems and Signal Processing, 211, 111232.

[50] L. Zhao, Z. Sun (2024): Double-foci acoustic metamaterial Luneburg lens, INTER-NOISE and NOISE-CON Congress and Conference Proceedings, 270 (11), 448-451.

[49] L Zhao, Y Liu, B Liao, F Liu, Z Sun (2024): Resonant-pillar-type acoustic black hole for ultralow-frequency vibration reduction, Europhysics Letters, 146 (3), 30003.

[48] L Zhao, X Zhuang, H Guo, C Bi, Z Sun (2024): Resonant-type Luneburg lens for broadband low-frequency focusing, Europhysics Letters, 145 (4), 40001.

[47] Y Liu, S Dou, Y Du, L Zhao, Z Sun (2024): Design of flexural wave bessel metasurface with resonant pillar-type metamaterials, Physica Scripta, 99(5), 055927.

[46] X. Zhao*, Y. Liu*, L. Zhao*, A. Yazdkhasti, Y. Mao, A. Siciliano, J. Dai, S. Jing, H. Xie, Z. Li, S. He, B. Clifford, J. Li, G. Chen, E. Wang, A. Desjarlais, D. Saloni, M. Yu, J. Kosny, J. Zhu, A. Gong, and L. Hu (2023): A Scalable, High-Porosity Wood for Sound Absorption and Thermal Insulation, Nature Sustainability, 6, 306–315. (SCI, 影响因子: 32.1, 中科院分区: 1区, *表示共同第一作者).

[45] L. Zhao, C. Bi, H. Huang, Q. Liu, Z. Tian (2023): A review of acoustic Luneburg lens: Physics and applications, Mechanical Systems and Signal Processing, 199, 110468.

[44] L. Zhao, C. Bi (2023): 基于声学黑洞夹层结构的低频振动控制, 现代振动与噪声技术, 14, 396-399.

[43] L. Zhao, H.T. Kim, M. Yu (2023): Structural Luneburg lens for broadband ultralong subwavelength focusing, Mechanical Systems and Signal Processing, 182, 109561.

[42] L. Zhao, C. Bi, M. Yu (2023): Structural lens for broadband triple focusing and three-beam splitting of flexural waves, International Journal of Mechanical Sciences, 240, 107907.

[41] L. Zhao, L. Tang, Y. Liu, Z. Sun, Q. Liu, C. Bi (2023): Passive directivity detection of acoustic sources based on acoustic Luneburg lens, The Journal of the Acoustical Society of America, 154 (2), 594-601.

[40] L. Zhao, Z. Sun, Q. Liu, C. Bi (2023): Acoustic beam splitter based on acoustic metamaterial Luneburg lens, Physics Letters A, 472, 128815.

[39] Z Sun, L Zhao, J Yang (2023): Underwater acoustic self-focusing and bending in conformal Mikaelian lens by pentamode metafluid, Journal of Physics D: Applied Physics, 56(50), 505304.

[38] Li, T Wu, APS Arunachalam, L Zhao, Q Liu (2023): A diffusion-reaction model for sulfate ion corrosion in multi-phase concrete immersed in ionic solution, Ceramics International, 49(9), 14064-14078.

[37] L. Zhao, C. Bi, M. Yu (2022): Designing flexural wave gradient index lens based on the Rays Inserting Method, Results in Physics, 40, 105897.

[36] L. Zhao, T. Horiuchi, M. Yu (2022): Acoustic waveguide based on cascaded Luneburg lens, JASA Express Letters, 2 (22), 024002.

[35] L. Zhao, T. Horiuchi, M. Yu (2021): Broadband ultra-long acoustic jet based on double-foci Luneburg lens, JASA Express Letters, 1 (11), 114001.

[34] L. Zhao, T. Horiuchi, M. Yu (2021): Broadband acoustic collimation and focusing using reduced aberration acoustic Luneburg lens, Journal of Applied Physics, 130 (20), 214901.

[33] L. Zhao, M. Yu (2020): Structural Luneburg lens for broadband cloaking and wave guiding, Scientific Reports, 10, 14556.

[32] L. Zhao, M. Yu (2020): Flattened structural Luneburg lens for broadband beamforming, The Journal of the Acoustical Society of America, 148(1), EL82-EL87.

[31] L. Zhao, C. Lai, M. Yu (2020): Modified Structural Luneburg Lens for Broadband Focusing and Collimation, Mechanical Systems and Signal Processing, 144, 106868.

[30] L. Zhao, E. Laredo, O. Ryan, A. Yazdkhasti, H.T. Kim, T. Horiuchi, M. Yu (2020): Ultrasound Beam Steering with Flattened Acoustic Metamaterial Luneburg Lens, Applied Physics Letters, 116 (7), 071902.

[29] L. Zhao, S. Zhou (2019): Tunable Multi-Source Energy Harvesting via Frequency Selective Structures, Engineering Research Express, 1 (1), 015001.

[28] L. Zhao, Y.C. Lam, C.Q. Lai (2019): Interaction of ultrasound with microporous polyethylene scaffolds, Applied Acoustics, 153, 102-109.

[27] L. Zhao, C.Q. Lai (2019): Asymmetric Lamb wave propagation and mode isolation in thin plate with spatiotemporal periodic stiffness, Journal of Vibration and Acoustics, 141 (5), 051005.

[26] L. Zhao, S. Zhou (2019): Compact Acoustic Rainbow Trapping in a Bioinspired Spiral Array of Graded Locally Resonant Metamaterials, Sensors, 19 (4), 788.

[25] L. Zhao, F. Semperlotti (2019): Detection of Breathing-type Damage using Multi-Harmonic Electrical Impedance Tomography, Structural Control and Health Monitoring, 26 (4), e2330.

[24] L. Zhao (2018): Low-frequency vibration reduction using a sandwich plate with periodically embedded acoustic black holes, Journal of Sound and Vibration, 441, 165-171.

[23] L. Zhao, F. Semperlotti (2017): Embedded acoustic black holes for broadband semi-passive vibration attenuation using shunted PZT in thin-walled structures, Journal of Sound and Vibration, 388, 42-52.

[22] L. Zhao (2016): Passive Vibration Control Based on Embedded Acoustic Black Holes, Journal of Vibration and Acoustics, 138(4), 041002.

[21] L. Zhao, J. Yang, K.W. Wang, F. Semperlotti (2015): An application of impediography to the high sensitivity and high resolution identification of structural damage, Smart Materials and Structures, 24(6), 065044.

[20] L. Zhao, S.C. Conlon, F. Semperlotti (2015): An experimental study of vibration based energy harvesting in dynamically tailored structures with embedded acoustic black holes, Smart Materials and Structures, 24(6), 065039.

[19] L. Zhao, S.C. Conlon, F. Semperlotti (2015): Experimental verification of energy harvesting performance in plate-like structures with embedded acoustic black holes, INTER-NOISE and NOISE-CON Congress and Conference Proceedings, 250 (3), 4043-4050.

[18] L. Zhao, J. Yang, K.W. Wang, F. Semperlotti (2015): Structural damage detection via impediographic tomography, SPIE Smart Structures and Materials and Non-destructive Evaluation and Health Monitoring.

[17] L. Zhao, F. Semperlotti (2014): Multifunctional structures for concurrent passive vibration control and energy harvesting based on embedded acoustic black holes, Noise-Con 2014.

[16] L. Zhao, F. Semperlotti, SC Conlon (2014): Enhanced vibration-based energy harvesting using embedded acoustic black holes, SPIE Smart Structures and Materials and Non-destructive Evaluation and Health Monitoring.

[15] L. Zhao, S.C. Conlon, F. Semperlotti (2014): Broadband energy harvesting using acoustic black hole structural tailoring, Smart Materials and Structures, 23(6), 065021.

[14] Z. Tian, L. Yu, E.L.B. Mohamed, P. Ziehl, L. Zhao (2013): A dual mode imaging array for damage detection in grout structures, SPIE Smart Structures and Materials and Non-destructive Evaluation and Health Monitoring.

[13]   F. Li, L. Zhao, Z. Tian, L. Yu, J. Yang (2013): Visualization of solitary waves via laser Doppler vibrometry for heavy impurity identification in a granular chain, Smart Materials and Structures, 22(3), 035016.

[12] L. Yu, V. Giurgiutiu, J. Yu, P. Ziehl, L. Zhao (2012): Comparative study of active and passive sensing with AE and PWAS transducers, SPIE Smart Structures and Materials and Non-destructive Evaluation and Health Monitoring.

[11] L. Yu, Z. Tian, L. Zhao (2012): Gas accumulation detection in a water tank using Lamb waves, ASME 2012 Conference on Smart Materials, Adaptive Structures and Intelligent Systems.

[10] L. Yu, L. Zhao, Z. Tian, V. Giurgiutiu, P. Ziehl (2012): Dual Mode Sensing of Crack Growth in Steel Bridge Structures, ASME 2012 Conference on Smart Materials, Adaptive Structures and Intelligent Systems.

[9] L. Zhao, L. Yu, M. Gresil, M. Sutton, S. Guo (2012): Electromechanical Impedance Modelling for Structural Health Monitoring, ASME 2012 Conference on Smart Materials, Adaptive Structures and Intelligent Systems.

[8]   赵流现,刘志峰,李新宇,张洪潮,成焕波(2011): 基于智能材料主动拆卸技术的产品多级主动拆卸方法及其设计准则研究, 中国机械工程, 7, 848-852.

[7]   魏培,刘光复,黄海鸿,赵流现(2011),面向再制造的基于PRO/E的仿真技术研究, 机械设计与制造, 11, 124-126.

[6]   Z. Liu, L. Zhao, X. Li, H. Chen (2011): Analysis of Mobile Phone Reliability Based on Active Disassembly Using Smart Materials, Journal of Surface Engineered Materials and Advanced Technology, 1(2), 80-87.

[5]   刘志峰,成焕波,李新宇,赵流现,张洪潮(2011):基于电热激发的主动拆卸产品设计方法及其设计准则研究, 中国机械工程, 19, 2359-2364.

[4]   刘志峰,成焕波,李新宇,赵流现 (2011):电热激发的主动拆卸结构设计, 机械设计与研究, 3, 12-16.

[3]   魏俊杰,刘志峰,刘光复,李新宇,赵流现(2011):主动拆卸结构优化设计方法及其应用, 合肥工业大学学报, 34(1), 6-9.

[2]   Z. Liu, L. Zhao, X. Li, H. Zhang, H. Chen (2010): Research on Multi-step Active Disassembly Method of Products Based on ADSM, Advanced Materials Research, 1428-1432.

[1]   刘志峰,李新宇,赵流现,魏俊杰,张洪潮 (2010): SMP主动拆卸结构激发效果影响因素的试验研究, 中国机械工程, 21(18), 2243-2246.

[12]     赵流现，杨军, 一种基于双螺旋声学黑洞的共振腔宽带声屏障, 2025-11-21, 中国, CN202511718104.0.

[11]     赵流现，杨军, 一种基于蜂窝结构的声屏障结构, 2025-12-23, 中国, CN202511286780.5.

[10]     赵流现，杨军, 一种基于可变曲线边界蜂窝式共振腔宽带声屏障, 2025-12-12, 中国, CN202511457943.1.

[9]     赵流现，杨军, 一种基于螺旋式共振腔的宽带声屏障, 2025-11-14, 中国, CN202511389012.2.

[8]     赵流现，王俭，庄旭旭，熊子祥，刘权, 一种水下双点聚焦声学波束成形器, 2025-04-08, 中国, CN202411893253.6.

[7]     赵流现，刘权，熊子祥，庄旭旭，王俭, 一种基于声学伦伯透镜的水下声学多波束成形器, 2025-04-08, 中国, CN202411893231.X.

[6]     赵流现，郭浩，庄旭旭，熊子祥, 一种基于声学龙伯透镜的噪声源识别装置, 2024-10-15, 中国, CN202410800536.5.

[5]     赵流现，郭浩，张超，支苏衡，高壮志，熊子祥，庄旭旭, 一种基于声学测量物体体积的装置及方法, 2024-09-06, 中国, CN202410757507.5.

[4]     赵流现，魏培，孙兆永, 一种声学黑洞减振装置, 2023-11-17, 中国, CN202311032752.1.

[3]     孙兆永，李志强，刘开明，赵流现, 基于弯曲波非衍射Talbot效应的编码装置、编码方法及通信方法, 2024-06-04, 中国, CN202410247574.2.

[2]     刘志峰, 李新宇, 成焕波, 宋守许, 赵流现, 可电热激发的主动拆卸结构及其激发方法, 2012-02-29, 中国, CN201010602800.2.

[1]     刘志峰，李新宇，宋守许，张 雷，张洪潮，赵流现，魏俊杰, 可分级主动拆卸的电子产品及其拆卸方法, 2010-02-17, 中国, CN200910145047.6.

[1] 赵流现，刘冰意，刘齐民，智能功能材料设计与制造, 化学工业出版社, 2026-05

[1] 声学所跃声计划, 负责人, 声学所自主部署计划, 2026-10--2029-12

[2] JKW项目, 负责人, 国家任务, 2026-07--2028-07

[3] 北京市自然科学基金面上项目, 负责人, 地方任务, 2026-01--2028-12

[4] 声学所人才项目, 负责人, 声学所自主部署计划, 2025-07--2029-12

[5] 国家自然科学基金面上项目, 负责人, 国家任务, 2025-01--2028-12

University of Notre Dame；Purdue University；Yale University；University of Maryland；Nanyang Technological University；Virginia Tech；University of Auckland；Seoul National University；University of Michigan；Pennsylvania State University

现指导学生

毕泽阳 博士研究生

熊子祥 博士研究生

任云康 硕士研究生

王 俭 硕士研究生

刘 权 硕士研究生

李志强 硕士研究生

黄韦杰 硕士研究生

已指导学生

庄旭旭 硕士研究生

熊子祥 硕士研究生