蓝春波

蓝春波，工学博士，副教授，河海大学风能与系统研究所副所长。先后于2012年、2015年和2018年分别取得西北工业大学本科、硕士和博士学位。2016年-2017年，新西兰奥克兰大学机械工程系联合培养学习。长期从事：非线性动力学、振动能量收集与自供电传感等研究。主持国家自然科学基金面上项目、国自然青年基金、军委科技委基础加强领域基金、装备发展部共用技术项目、江苏省自然科学基金青年项目、国家博士后面上项目等科研项目，研究成果在MSSP、AS、JSV、SMS、APL等国际高水平SCI期刊上发表论文40余篇。获陕西省高等学校科学技术二等奖一项。入选ASME SMASIS Senate (智能结构、自适应系统与智能系统分会委员)，担任ASME能量收集技术委员会委员和JPD-AP等3个SCI期刊客座编辑。个人总他引1100余次，单篇最高160余次，H指数=19。2024年入选全球前2%顶尖科学家（Elsevier）。

欢迎能源与动力、力学、土木、航空航天、机械、电力电子、自动化等专业同学报考。提供充足科研经费、国际化交流机会及个性化培养方案，助力学生成长为高水平科研人才。

邮箱：chunbo.lan@hhu.edu.cn.

教育经历

2016.03 – 2017.03 新西兰奥克兰大学，机械工程，公派联合培养博士

2013.09 – 2018.03 西北工业大学，工程力学，博士

2012.09 – 2015.09 西北工业大学，一般力学与力学基础，硕士，硕博联培

2008.09 – 2012.06 西北工业大学，交通工程，学士

工作经历

2018.04 – 2026.03 南京航空航天大学，航空学院，讲师、副研究员

2026.03 – 至今   河海大学，新能源学院，副教授

研究方向

方向一：环境微能量收集方法

• 风能能量收集

• 振动能量收集

• 海洋能量收集

• 多源微能量收集

方向二：风电机组能量收集自供电信息感知

• 自供电信息感知/物联网（Self-powered Information Sensing/IoTs）

• 风电机组风速、应变、振动等关键信息自供电感知

方向二：结构自驱的风电机组异常信息感知与智能预警

• 人工智能自供电物联网（Artificial Intelligent Self-powered IoTs）；

• 风电机组自供电信息感知与智能预警系统

• 自供电低功耗微电子器件嵌入式开发与应用

学术活动

美国ASME会员、SPIE会员、中国振动工程学会会员、航空学会会员；

ASME Energy Harvesting Technical Committee Member；

ASME SMASIS Divison Senate；

NVND，VEH等国内和国际会议分会场主席；

《Journal of Physics D: Applied Physics》、《Micromachines》等SCI期刊客座编辑。

项目经历（主持）

[1].国家自然科学基金面上项目，面向无源应变传感的旋翼多谐波振动能量收集方法及其机理研究，2026.01-2029.12

[2].国家自然科学基金青年科学基金，12002152，自动追踪振源频率的压电能量收集系统的动力学机理与实验研究，2021.01-2023.12

[3].军委科技委基础加强领域基金，直升机XX减振技术研究，2023-2025

[4].直升机动力学全国重点实验室基金，直升机XX振动能量收集无源传感技术研究，2024-2026

[5].中国博士后科学基金面上项目，非对称追频式压电振动能量收集系统的动力学机理与实验研究，2020.09-2023.08

[6].江苏省自然科学基金--青年基金项目，BK20190379，自适应变频振动能量收集系统的动力学机理与实验研究，2019.07-2022.06

[7].中央高校基本科研业务费--青年科技创新基金(理工民口类)，自适应变频振动能量收集技术研究，2020.11-2022.11

[8].中央高校基本科研业务费--青年科技创新基金(理工军口类)，振动能量收集无源XX传感技术研究，2024-2025

[9]. 中央高校基本科研业务费，风电叶片能量收集与自供电传感，2026-2028.

教育教学

担任20级卓越工程师班班主任，所在班级获校“标兵班级”；

担任钱伟长班学业导师，指导学生获国家级大创项目项目1项，优秀结题；

指导学生获2022年“互联网+”大赛省赛二等奖1项；

指导学生获“第三届超材料力学大赛”一等奖1项；

指导学生获“第四届超材料力学大赛”二等奖1项。

个人获奖

陕西省高等学校科学技术二等奖；

“第三届超材料力学大赛”优秀指导教师奖；

“第四届超材料力学大赛”优秀指导教师奖；

ASME能量收集年度最佳论文奖，2023，

2024全球前2%顶尖科学家。

期刊论文

2026年

[40] 陈曦, 蓝春波*, 张璐,基于振动能量收集的结构应变传感系统设计与实验研究, 振动工程学报, 2026, 已录用

[39] Liao Yabin*, Qian Feng, Lan Chunbo, Material and geometric nonlinearities in piezoelectric energy harvesting: modeling, validation, and analysis, Smart Materials and Structures, 2026, 35: 085046

[38] Li Yizhou, Zhang Ye, Tang Hao, Zheng Yaozi, Wang Yawei, Zhao Chaoyang, Dong Liwei, Wang Junlei*, Lan Chunbo*, Hu Guobiao*. Sustained Self-Powered Real-Time Vibration Monitoring Through Integrated Nonlinear Harvesting and Energy-Aware Wireless Sensing. Advanced Science, 2026: e76967.

[37] Lan Chunbo*, Chen Xi, Liao Yabin, Wang Shuo, Deep-learning enabled parametric identification method of vibration-based energy harvesters with piezoelectric nonlinearity, Smart Materials and Structures, 2026, 35(4):045031

[36] Lan, Chunbo*, Wang Shuo, Chen Xi, Lu Yang, Hu Guobiao, Bandgap trade-off in a nonlinear metamaterial beam with magnetically coupled dual-resonators [J], Journal of Sound and Vibration, 2026, 632, 119727.

2025年

[35] 蓝春波*, 贾洁, 汪洋, 王烁，张璐, 仿节肢动物肢体构型的M形低频隔振结构设计及其动力学机理, 物理学报, 2025, 74(13):37-51

[34] Du, Chengyun, Shuai Jiang, Shuai Qu, Xiao Wang, Yingqi Zhang, Chunbo Lan, and Guobiao Hu*. Vehicle-level modeling and analysis of onboard energy harvesters and their impact on dynamics. Journal of Vibration and Acoustics 2025, 147(6): 061009.

[33] Zhang Ye, Wang Yawei, Zheng Yaozi. Lan Chunbo, Hu Guobiao*, Magnetically enhanced quasi-zero-stiffness galloping harvester for efficient wind energy harvesting and autonomous sensing, Applied Physics Letters, 2025, 127(20)

[32] Lan Chunbo*, Zhang Ye, Wang Shuo, Lu Yang, Wang Yang, Hu guobiao*, Enhancing galloping-based energy harvesting through expanded quasi-zero-stiffness region, Smart Materials and Structures, 2025, 34(05): 055018.

2024年

[31] Zhang Lu, Lan Chunbo*, Lu Fangjie, Lu Yang, Theoretical Analysis of the Power Performance of a Monostable Galloping‐Based Piezoelectric Energy Harvester, International Journal of Energy Research 2024 (1), 1386237

[30] Xu Xice, Lu Yang*, Lan Chunbo, Xing Zebao, Shao Mengxue, Experimental research on global active rotor noise control using near-field acoustic holography and sound field reproduction, Mechanical systems and signal processing, 2024, 206: 110930

[29] Xu Xice, Lu Yang*, Lan Chunbo, Xing Zebao, Shao Mengxue, Lu Jiaxin, Mechanism analysis of the influence of rotor-to-rotor interactions on global rotor noise, Journal of Sound and Vibration, 2024, 585:118473

2023年

[28] Li Chenglei, Lu Yang*, Lan Chunbo, Wang Yang, Noise reduction in helicopter cabins using microperforated panel composite sound absorption structures, Applied Sciences, 2023, 13(14):8153

[27] Xu Xice, Lu Yang*, Shao Mengxue, Lan Chunbo, Fast prediction method for multirotor global tonal noise based on acoustic modal analysis, Mechanical systems and signal processing, 2023, 183: 109620

2022年

[26] Lan Chunbo, Qian Feng, Liao Yabin, Zuo Lei, Power characteristics of vibration-based piezoelectric energy harvesters: the effect of piezoelectric material nonlinearity, Smart Materials and Structures, 31(10):105017

[25] Hu Guobiao, Lan Chunbo, Liang Junrui, Tang Lihua, Zhao Liya, Theoretical study of a two-degree-of-freedom piezoelectric energy harvester under concurrent aeroelastic and base excitation, Journal of Intelligent Material Systems and Structures, 2022, 33(15), 2000-2016

[24] Hu Guobiao, Lan Chunbo, Tang Lihua, Yang Yaowen, Deep-subwavelength interface states in mechanical systems, Mechanical systems and signal processing, 2022, 169: 108598

[23] Hu Guobiao, Lan Chunbo, Tang Lihua, Zhou Bo, Yang Yaowen, Dynamics and power limit analysis of a galloping piezoelectric energy harvester under forced excitation, Mechanical systems and signal processing, 2022, 168: 108724

[22] Hu Guobiao, Lan Chunbo, Tang Lihua, Yang Yaowen, Local resonator stimulated polarization transition in metamaterials and the formation of topological interface states, Mechanical systems and signal processing, 2022, 165: 108388

[21] 吴义鹏, 李森, 蓝春波, 周圣鹏, 谢维泰, 裘进浩, 季宏丽, 压电能量俘获结构及其升频转换技术的发展现状, 机械工程学报, 2022, 58(20):27-45

[20] Lan, Chunbo, Liao Yabin*, Hu Guobiao, A unified equivalent circuit and impedance analysis mothod for galloping piezoelectric energy harvesters[J], Mechanical systems and signal processing, 2022, 165: 108339

2021年

[19] Lan, Chunbo*, Chen Zhenning, Hu, Guobiao, Liao, Yabin and Qin, Weiyang, Achieve frequency-self-tracking energy harvesting using a passively adaptive cantilever beam[J], Mechanical systems and signal processing, 2021, 156: 107672

[18] Lan, Chunbo, Hu Guobiao*, Tang, Lihua, Yang Yaowen, Energy localization and topological protection of a locally resonant topological metamaterial for roubst vibration energy harvesting[J], Journal of Applied Physics, 2021, 129: 184502.

[17] Lan, Chunbo*, Tang, Lihua, Hu, Guobiao, and Qin, Weiyang, A wind-induced negative damping method to achieve high-energy orbit of a nonlinear vibration energy harvester [J], Smart Materials and Structures, 2021, 30: 02LT02.

2020年

[16] Hu Guobiao, Liang Junrui, Lan Chunbo, Tang Lihua, A twist piezoelectric beam for multi-directional energy harvesting, Smart Materials and Structures, 2020. 29(11):11LT01

[15] Lan Chunbo, Liao Yabin, Hu Guobiao, Tang Lihua, Equivalent impedance and power analysis of monostable piezoelectric energy harvesters, Journal of Intelligent Material Systems and Structures, 2020, 31(14): 1697-1715.

[14] Hu, Guobiao, Xu Jiawen, Tang Lihua, Lan Chunbo, and Das Raj. Tunable metamaterial beam using negative capacitor for local resonators coupling. Journal of Intelligent Material Systems and Structures, 2020, 31(3): 389-407.

2019年

[13] Hu, Guobiao, Tang Lihua*, Xu Jiawen, Lan Chunbo, and Das Raj. Metamaterial with local resonators coupled by negative stiffness springs for enhanced vibration suppression. Journal of Applied Mechanics, 2019. 86(8): 081009.

[12] Lan Chunbo*, Tang Lihua, Hu Guobiao, and Qin Weiyang, Dynamics and performance of a two degree-of-freedom galloping-based piezoelectric energy harvester[J], Smart Materials and Structures, 2019, 28: 045018.

2018年

[11]Lan Chunbo, Tang Lihua*, and Harne Ryan. L., Comparative methods of assessment for study of nonlinear piezoelectric energy harvesters interfaced with AC and DC circuits[J], Journal of Sound and Vibration, 2018,421:61-78

[10] Lan Chunbo, Tang Lihua*, and Qin Weiyang, Magnetically coupled dual-beam energy harvester: benefit and trade-off[J], Journal of Intelligent Material Systems and Structures, 2018, 29(6):1216-1235

2018年以前

[9] Lan Chunbo, Tang Lihua*, and Qin Weiyang, Obtaining high-energy responses of nonlinear piezoelectric energy harvester by voltage impulse perturbations[J], European Physical Journal: Applied Physics, 2017, 79(2) 20902

[8] Lan Chunbo, Qin Weiyang*, Enhancing ability of harvesting energy from random vibration by decreasing the potential barrier of bistable harvester[J], Mechanical systems and signal processing, 2017, 85, 71-81

[7] 李海涛, 秦卫阳*, 邓王蒸, 蓝春波, 田瑞兰, 复合式双稳能量采集系统动力学及相干共振, 振动与冲击, 2016, 35(14):119-124+139

[6] Li Haitao, Qin Weiyang*, Lan Chunbo, Deng Wangzheng, Zhou Zhiyong, Dynamics and coherence resonance of tri-stable energy harvesting system, Smart Materials and Structures, 2016, 25(1):015001

[5] Lan Chunbo, Qin Weiyang*, Deng Wangzheng, Energy harvesting by dynamic unstability and internal resonance for piezoelectric beam[J], Applied Physics Letters, 2015,107 093902

[4] 蓝春波, 秦卫阳*, 李海涛, 随机激励下双稳态压电俘能系统的相干共振及实验验证. 物理学报, 2015, 64(08):76-83

[3] 蓝春波, 秦卫阳*, 带碰撞双稳态压电俘能系统的俘能特性研究. 物理学报, 2015, 64(21):191-202

[2] 李海涛, 秦卫阳*, 周志勇, 蓝春波, 带有分数阶阻尼的压电能量采集系统相干共振, 物理学报，2014, 63(22):100-107

[1] Lan Chunbo, Qin Weiyang*, Energy harvesting from the coherence resonance of horizontal vibration of beam excited by vertical base motion[J], Applied Physics Letters, 2014,105: 11