卢镇波

航空宇航科学与技术 教授  博士生导师

Luzhb7@mail.sysu.edu.cn

https://www.researchgate.net/profile/Zhenbo_Lu 

https://www.scopus.com/authid/detail.uri?authorId=55848769700

卢镇波，博士，William希尔官网教授，博士生导师，获得北京航空航天大学航空宇航推进理论与工程学士和硕士学位，香港理工大学机械工程博士学位，在新加坡国立大学工作多年。任航空学报和空天技术等期刊青年编委，中国商飞北京民用飞机技术研究中心技术顾问，中国空气动力学学会低跨超声速专业委员会委员。主要研究包括电动垂直起降飞行器（eVTOL），飞行器气动设计，气动噪声，人工智能，仿生扑翼飞行器，声学超表面，智能材料与结构，噪声与振动等。获得2019年国家海外高层次青年人才，2020年“珠江人才计划”青年拔尖人才等人才项目奖励与资助。主持建设智能仿生飞行器及声学超表面实验室，该实验室有600多平实验室面积（包括教学和科研），设备投入一期1000万，二期1800多万。主要设备仪器包括：低速静音风洞，消声室，风墙，回流式循环水槽，粒子图像测速，Phantom高速摄像系统，AMTI平面力测试系统，高精度激光位移传感系统以及流体和声学测量的有关设备。

常年招聘博士后职位，名额不限，欢迎优秀的博士毕业生申请！

每年有1到2个博士生名额，2个硕士名额，欢迎同学们咨询和申请。

研究领域 – 低空经济之eVTOL关键技术

1．电动垂直起降飞行器（eVTOL）

2．飞行器气动设计

3．气动噪声

4. 人工智能

5. 仿生扑翼飞行器

6. 声学超表面

7. 智能材料与结构

8. 噪声与振动

9. 流固声耦合机理研究

图1：低空经济之eVTOL关键技术 - 研究背景

图2：低空经济之eVTOL关键技术 - 技术难点

图3：低空经济之eVTOL关键技术 - 关键科学问题与关键技术

图4：低空经济之eVTOL关键技术 - 仿生气动构型

图5：低空经济之eVTOL关键技术 - 分布式动力倾转机制

教育背景

工作经历

2021年2月至今 – 教授, William希尔官网，中山大学

2020年6月至2021年1月 - 副教授, William希尔官网，中山大学

2019年1月至2020年6月 - 资深研究员（Senior Research Scientist），实验航空科学团队，淡马锡实验室，新加坡国立大学

2012年7月至2018年12月 - 研究员（Research Scientist）, 实验航空科学团队, 淡马锡实验室, 新加坡国立大学

人才称号

2021年 - 深圳海外高层次人才 （孔雀人才B类）

2019年 - 国家海外高层次青年人才

2019年 - “珠江人才计划” 青年拔尖人才

2019年 - 中山大学 “百人计划” 中青年杰出人才

获奖情况

虚实交互驱动的无人机变负载智能飞行关键技术及应用，广东省科技进步奖二等奖，广东省人民政府，中国，2023

学术组织任职情况

航空学报，空天技术青年编委

中国商飞北京民用飞机技术研究中心技术顾问

中国空气动力学学会低跨超声速专业委员会委员

深圳市低空经济标准化技术委员会委员

讲授课程

空气动力学

新概念飞行器设计与气动声学

科研创新训练

智能材料与智能仿生结构

科技简史（学校公选课，低空经济之空天技术）

项目情况

国家海外高层次青年人才配套项目，2020-01至2023-12，200万

2022国家自然基金委原创探索计划项目，水压免疫消声超表面宽低频模式调控机理与鲁棒逆向设计方法，2023-2025，300万

国家海外高层次青年人才省级配套项目，2020-01至2023-12，25万

航空科学基金，航空降噪结构中多功能声学超材料设计技术研究，2024-2025,17万

广东省自然科学基金，面上项目，仿生变形翼型气动噪声机理及基于机器学习的控制方法研究，2023-01至2025-12，10万

深圳市科技创新委员会，稳定支持重点项目，基于人工智能的仿生飞行器关键技术及机理研究，2020-01至2023-12，300万

深圳市基础研究专项（自然科学基金）基础研究面上，仿蜻蜓高效静音微型扑翼飞行器关键技术研究，2023-01至2025-12，30万

深圳市基础研究专项（自然科学基金）基础研究面上，高效率低噪音电动垂直起降飞行器关键技术研究，2024-2027，30万

高校基本业务科研费，低空经济及eVTOL关键技术研究，2024-01至2024-12, 20万

空天飞行空气动力科学与技术全国重点实验室，新型电推进多旋翼垂直起降飞行器气动布局研究，2024-12至2026-12，10万

美的洗涤电器制造有限公司，基于流动控制机理的有流超表面技术研究，2025-01至2026-12, 80万

广东省政府大学生科技创新培育项目，仿雨燕翼型的智能变体机翼研究，2020-01至2022-12，5万

淡马锡投资旗下基金，Smart noise barrier，2019-01至2023-12，500万

代表性著作/论文

[1]Fuqiang SONG, Congsen MO, Han MENG and Zhenbo LU. Design, Characterization and Verification of a Small-scale Low-speed Anechoic Wind Tunnel (Submitted)

[2]Zhuye Xia,  Yijuan Gu, Luyao Tang, Zhenbo Lu*. Aerodynamic optimization for an airfoil inspired from swift’s wing using Kriging model (Submitted) 

[3]Yingqi Mu, Dongxu Li, Gih-Keong Lau, Yaowei Chin, Zhenbo Lu*. A Study on the Dragonfly’s High-Lift Mechanisms and its Flow Model Construction (Submitted)

[4]Han MENG, Fuqiang SONG, YiJuan GU, Zhenbo LU*. An Investigation on Aerodynamics and Aeroacoustics Performance of Tilting Ducted fan at different Reynolds numbers and Angles of Attack (Submitted)

[5]Shichao SONG, Sidong ZHANG, Xiaoye LIU, Chenxv DU, Hao-Wen DONG, Zhenbo LU*. Advances and Integration of Noise-Reduction Materials and Structures - A Review of Porous Materials and Acoustic Metamaterials (Revised)

[6]Weibo LI, Sidong ZHANG and Zhenbo LU*. An Investigation on UAV Vibration Control Based on Negative Poisson's ratio Metastructures (Revised)

[7]Wenlong YANG, Jiahui LUO, Xiaoming XU, Kun LIU, Zhenbo LU∗.Fast Response Gripper Based on Asymmetric Bistable Dual-Triangle Tensegrity Structure (Revised)

[8]Chenxv DU, Yijuan GU, Hao-Wen DONG, Yao Wei CHIN, Zhenbo LU*. Optimal Design of Acoustic Ventilated Metasurfaces Using Enhanced WhaleOptimization Algorithm (Submitted)

[9]Dongxu, LiYingqi Mu, Gih-Keong Lau, Yaowei Chin, Zhenbo Lu*. Numerical study on the aerodynamic performance of dragonfly (Anax parthenope julius) maneuvering flight during synchronized-stroking. Physics of Fluids 36, 091911 (2024)

[10]Chenxv Du, Shichao Song, Honglei Bai, Jianing Wu, Kun Liu, Zhenbo Lu*. An investigation on synergistic resonances of membrane-type acoustic metamaterial with multiple masses. Applied Acoustics 220 (2024) 109988

[11]Yijuan Gu, Fuqiang Song, Honglei Bai, Jianing Wu, Kun Liu, Bowen Nie, Liangquan Wang, Zhizhou Zhang, Zhenbo Lu*. Numerical and experimental studies on the owl-inspired propellers with various serrated trailing edges. Applied Acoustics 220 (2024) 109948

[12]M. Shrestha, G.K. Lau, Y.W. Chin, E.H.T. Teo, B.C. Khoo, Z. LU. Reconfigurable Dielectric Elastomer Actuated Petals for Tunable Acoustic Metasurface. Communications Engineering volume 3, Article number: 11 (2024)

[13]Kejing Chen, Wei Meng, Jinhan Wang, Kun Liu, Zhenbo Lu. An investigation on the structural vibrations of multi-rotor passenger drones. International Journal of Micro Air Vehicles, Volume 15, January-December 2023

[14]M. Shrestha, G.K. Lau, Y.W. Chin, E.H.T. Teo, B.C. Khoo, Z. LU. Reconfigurable Dielectric Elastomer Actuated Petals for Tunable Acoustic Metasurface. Communications Engineering volume 3, Article number: 11 (2024)

[15]Yingxin Zhang, Yao Wei Chin, Xiang Yu, Milan Shrestha, Gih-Keong Lau, Boo Cheong Koo, Kun Liu, Zhenbo Lu. Ventilated acoustic metasurface with extreme low-frequency sound insulation. JASA Express Lett. 2023 Jul 1;3(7):073602. doi: 10.1121/10.0020133. AIP Scilight "Membraned metasurface blocks noise but not air flow," https://doi.org/10.1063/10.0020435, DOI: 10.1063/10.0020435. 

[16]Yingxin Zhang, Milan Shrestha, Shunhang Chen, Yao Wei Chin, Gih-Keong Lau, Kun Liu, Zhenbo Lu. An investigation on the acoustic impedance of a viscously damped micro-perforated rectangular membrane. Applied Acoustics 209 (2023) 109401

[17]Chih Chun Wu, Siu-Chung Loke, Zhenbo Lu, Milan Shrestha, Boo Cheong Khoo, and Gih-Keong Lau. Transformation from Helmholtz to Membrane Resonance by Electro-Adhesive Zip of a Double-Layer Micro-Slit Acoustic Absorber. Adv. Mater. Technol. 2023, 2201757. 

[18]M. Shrestha, G.K. Lau, A.K. Bastola, Z. Lu, A. Asundi, E.H.T. Teo. Emerging Smart Window Technologies for Active Transparency Tuning. Applied Physics Reviews 9, 031304 (2022) 

[19]X. F. Wei; L. P. Chua; Z. B. Lu; H. D. Lim. Experimental investigations on screech mitigation and amplification by bevelled and double-bevelled nozzles. Journal of Aerospace Engineering. Volume 35 Issue 4 - July 2022

[20]Honglei Bai, Zhenbo Lu, Renke Wei, Yannian Yang and Yu Liu. Noise reduction of sinusoidal wavy cylinder in subcritical flow regime. Phys. Fluids 33, 105120 (2021); doi: 10.1063/5.0065881

[21]Honglei Bai, Jinlai Gong and Zhenbo Lu. Energetic structures in the turbulent boundary layer over a spanwise-heterogeneous converging/diverging riblets wall. Phys. Fluids 33, 075113 (2021); doi: 10.1063/5.0055767

[22]Gioia Fusaro, Xiang Yu, Zhenbo Lu, Fangsen Cui, Jian Kang*. A Metawindow with optimised acoustic and ventilation performance. Appl. Sci. 2021, 11(7), 3168; https://doi.org/10.3390/app11073168

[23]Milan Shrestha, Gih-Keong Lau, Anand Asundi and Zhenbo Lu*. Dielectric Elastomer Actuator-Based Multifunctional Smart Window for Transparency Tuning and Noise Absorption. Actuators 2021, 10, 16. https://doi.org/10.3390/act10010016

[24]Milan Shrestha*, Gih-Keong Lau, Anand Asundi and Zhenbo Lu. Multifunctional Smart Window Based on Dielectric Elastomer Actuator. Proceedings 2020, 64, 32; doi:10.3390/IeCAT2020-08509

[25]Xiang Yu, Wei Zhai, Zhenbo Lu. Enhancing the flow resistance and sound absorption of open-cell metallic foams by creating partially-open windows. Acta Materialia,Volume 206, March 2021, 116666

[26]M. Shrestha, Z. Lu and G.K. Lau. Humidity Sensors based on Dielectric Elastomer Activation using PEDOT:PSS Thin Film Electrodes. Sensors and Actuators B: Chemical,Volume 329, 15 February 2021, 129268

[27]Yongzhen Mi, Zhenbo Lu, and Xiang Yu. Acoustic inerter: Ultra-low frequency sound attenuation in a duct. The Journal of the Acoustical Society of America 148, EL27 (2020)

[28]Marco Debiasi, Zhenbo Lu, Quoc Viet Nguyen and Woei Leong Chan. Low-Noise Flapping Wings with Tensed Membrane. AIAA Journal, vol. 58, issue 6, 2020. pp. 2388-2397

[29]Xing-Feng Zhu, Siu-Kit Lau, Zhenbo Lu and Genevieve Ow Lai Fern. Broadband sound absorption via vegetation with a metasurface substrate. Applied Acoustics，Volume 165, August 2020, 107309

[30]Wei X. F, Chua L. P., Lu Z. B., Lim H. D., Mariani R., Cui Y. D. and New T. H.* Near- and far-field acoustic characteristics of stepped nozzles at over- and perfectly-expanded supersonic jet flow conditions. J. Fluids Eng. Nov 2020, 142(11): 111205 (13 pages) 

[31]Xing-Feng Zhu, Siu-Kit Lau, Zhenbo Lu and Wonju Jeon. Broadband low-frequency acoustic absorption by periodic metamaterial resonators embedded in a porous layer. Journal of Sound and Vibration， Volume 461, 24 November 2019, 114922

[32]Wei X. F., Mariani R., Chua L. P., Lim H. D., Lu Z. B., Cui Y. D. and New T. H. Mitigation of under-expanded supersonic jet noise through stepped nozzles. Journal of Sound and Vibration，Volume 459, 27 October 2019, 114875

[33]Milan Shrestha, Zhenbo Lu, and Gih-Keong Lau. Transparent Tunable Acoustic Absorber Membrane Using Inkjet-Printed PEDOT:PSS Thin-Film Compliant Electrodes. ACS Appl. Mater. Interfaces, 2018, 10 (46), pp 39942–39951. 

[34]Xiang Yu, Zhenbo Lu, Tuo Liu,Jie Zhu, Li Cheng and Fangsen Cui*. Sound transmission through a periodic acoustic metamaterial grating. Journal of Sound and Vibration 449 (2019) 140-156

[35]Xiang Yu, Hongbin Fang, Fangsen Cui, Li Cheng and Zhenbo Lu*. Origami-inspired foldable sound barrier designs: a mechanism study. Journal of Sound and Vibration 442:514-526. 2019. 

[36]Zhenbo LU, Xiang YU, Siu-Kit LAU*, Boo Cheong KHOO and Fangsen CUI. Membrane-type acoustic metamaterials with eccentric masses for broadband sound isolation. Applied Acoustics, Volume 157, 1 January 2020, 107003.

[37]Hsiao Mun LEE, Zhenbo LU, Kian Meng LIM and Heow Pueh LEE*. Quieter propellers with serrations. Applied Acoustics, Volume 146, March 2019, Pages 227-236.

[38]Zhenbo Lu*, Marco Debiasi, Quoc Viet Nguyen, Woei-Leong Chan. Bio-inspired low-noise wing design for a two-winged flapping wing Micro-Air-Vehicle. AIAA Journal, Vol. 56, No. 12 (2018), pp. 4697-4705.

[39]Xiang Yu, Zhenbo Lu, Li Cheng and Fangsen Cui*. On the sound insulation of acoustic metasurface using a sub-structuring approach. Journal of Sound and Vibration 401 (2017) 190–203

[40]Zhenbo Lu, Milan Shrestha, Gih-Keong Lau*. Electrically tunable and broader-band sound absorption by using micro-perforated dielectric elastomer actuator. Applied Physics Letters 110(18), 182901 (2017). 

[41]Kai-Yew Lum*, Cai-Lin Xu, Zhenbo Lu, Kwok-Leung Lai, Yongdong Cui. Design and experiment of data-driven modeling and flutter control of a prototype wing. Journal of Sound and Vibration 398, pp. 103-122 (2017).

[42]Xiang Yu, Zhenbo Lu, Li Cheng and Fanseng Cui*. Vibroacoustic modeling of an acoustic resonator tuned by dielectric elastomer membrane with voltage control. Journal of Sound and Vibration 387, pp. 114-126 (2017).

[43]Xiang YU, Zhenbo LU*, Fangsen CUI, Li CHENG and Yongdong CUI. Tunable acoustic metamaterial with an array of resonators actuated by dielectric elastomer. Extreme Mechanics Letters 12, pp. 37-40 (2017).

[44]Zhenbo Lu*, Yongdong Cui and Marco Debiasi. Active membrane-base silencer and its acoustic characteristics. Applied Acoustic 111, pp. 39-48 (2016).

[45]Zhenbo Lu*, Xiaodong Jing, Xiaofeng Sun, and Xiwen Dai. An investigation for the characteristics of a non-locally reacting acoustic liner. Journal of Vibration and Control 22(10), pp. 2337-2346 (2016).

[46]Z. B Lu*, D. Halim and L. Cheng. Flow-induced noise control behind bluff bodies with various leading edges using the surface perturbation technique. Journal of Sound and Vibration 369, pp. 1-15 (2016).

[47]Zhenbo Lu*, Hareesh Godaba, Yongdong Cui, Choon Chiang Foo, Marco Debiasi and Jian Zhu. An electronically tunable duct silencer using dielectric elastomer actuators. Journal of the Acoustical Society of America 138, EL236 (2015).

[48]Zhenbo Lu*, Yongdong Cui, Marco Debiasi and Zijie Zhao. A Tunable Dielectric Elastomer Acoustic Absorber. Acta Acustica United with Acustica 101, pp. 863 – 866 (2015).

[49]Z. B. Lu, D. Halim and L. Cheng*. Closed-loop control of flow-induced sound in a flow duct with downstream resonant cavities. Journal of the Acoustical Society of America 133 (3), pp. 1468–1479 (2013).

[50]Z. B. Lu and L. Cheng*. Active control of flow-induced acoustic resonance through surface perturbation. AIAA Journal 50(11), pp. 2566-2573 (2012).

[51]K Y Fung*, X. D. Jing, Z. Lu and X Yang. Time-Domain in Situ Characterization of Acoustic Liners in a Flow Duct. AIAA Journal 47(6), pp. 1379-1387 (2009).

[52]K.-Y. Fung*, X. D. Jing, Z. B. Lu and T. Wang. Impedance Boundary Condition for Truncated Open Spaces. AIAA Journal 46(6), pp. 1432-1441 (2008).

[53]LU Zhen-bo, JING Xiao-dong* and SUN Xiao-feng. A finite element model of sound propagation in flow duct with its application to linear optimization. Journal of Aerospace Power, 2007-08-019.

专利

1.Tunable acoustic absorber, and method of operation thereof      美国      WO 2021/045683 A1 2019.09.03   

2.基于变腔式大蒙皮结构的智能变形机翼。李伟博，陈顺行，卢镇波，白宏磊，吴嘉宁，刘昆。202310990542.7

3.一种基于多稳态平衡构型设计的张拉整体快速响应夹爪。杨文龙,罗嘉辉,徐小明,卢镇波,刘昆。202311658856.3

4.一种可自动调节攻角的倾转涵道风扇实验平台。蒙瀚,宋赋强,卢镇波,古怡娟。202420411867.5

5.声学流管测试平台及其测试方法。张斯冬,卢镇波,宋世超,刘晓烨,杜晨旭。202411441357.3

6.一种串列翼与水滴型机身组合的气动布局结构。卢镇波,夏竹叶,莫崇森,宋赋强。202422910623.4

7.一种基于力学超结构的无人机减振装置。卢镇波、李伟博、张斯冬、刘晓烨。

8.一种分布式倾转涵道风扇式电动垂直起降飞行器。卢镇波、莫崇森、唐培杰、夏竹叶、宋赋强、蒙瀚。

9.一种分布式涵道风扇动力翼电推进系统。卢镇波、莫崇森、宋赋强、蒙瀚。

10.一种分布式倾转涵道风扇飞行器结构与工艺设计。卢镇波、莫崇森、唐培杰、蒙瀚。

特邀报告

1.Zhenbo Lu. A tunable duct silencer using dielectric elastomer actuators. 13 October 2015 (Tuesday), Time: 11:00 am – 12:00 pm, Venue: EF305, Department of Mechanical Engineering, The Hong Kong Polytechnic University.

2.基于仿生学的气动及气动噪声研究。2025年全国气动声学研究进展研讨会，南方科技大学。2024年1月7日至2024年1月8日

3.基于介电弹性体的可重构声学超表面，第三届全国超材料大会，浙江省桐乡市乌镇， 2024年5月9日~12日

4.低空经济关键技术攻关-倾转涵道旋翼气动布局设计与关键控制技术研究，2024 深圳 eVTOL 大会暨低空经济展览会，2024年9月23日至2024年9月25日

书籍著作情况 

1. Wee-beng Tay, Zhenbo Lu, Sai Sudha Ramesh, Boo-cheong Khoo. Numerical Simulations of Serrated Propellers to Reduce Noise. SCFA 2020: Supercomputing Frontiers pp 87-103. 

2. L. Cheng, Z. B Lu and D. Halim. Active Control of Flow-Induced Acoustic Resonance Inside Downstream Cavities Through Surface Perturbation. New trends in smart technologies, Ed.: Christian Boller, Hartmut Janocha, Fraunhofer Verlag, ISBN 978-3-8396-0577-6, 2013, pp. 205-222.

实验室条件