Page 56 - 《振动工程学报》2026年第3期
P. 56
656 振 动 工 程 学 报 第 39 卷
态势能阱轨道和压电振动能量采集器,克服了传统 vesting technology[J]. Instrument Technique and Sen⁃
磁铁耦合式压电振动能量采集器因磁场分布不均和 sor, 2022(8): 100-107.
数量增多等因素造成的结构复杂、性能不佳等问题。 [9] 马超群, 王德波 . 基于压电能量收集技术的自供电系
统设计[J]. 微纳电子技术, 2024, 61(2): 109-116.
参考文献: MA Chaoqun, WANG Debo. Design of self-powered
system based on piezoelectric energy harvesting technol⁃
ogy[J]. Micronanoelectronic Technology, 2024, 61
[1] 贺学锋, 齐睿, 程耀庆, 等 . 风致振动能量采集器驱动
(2): 109-116.
的无线风速传感器[J]. 振动工程学报, 2017, 30(2):
[10] 陈志敏, 荣训, 曹广忠 . 基于压电能量收集技术的自
290-296.
供 电 电 源 设 计[J]. 电 子 设 计 工 程 , 2016, 24(10):
HE Xuefeng, QI Rui, CHENG Yaoqing, et al. A wire⁃
105-107.
less air flow sensor powered by a wind-induced vibration
CHEN Zhimin, RONG Xun, CAO Guangzhong. De⁃
energy harvester[J]. Journal of Vibration Engineering,
sign of a self-powered power based on piezoelectric ener⁃
2017, 30(2): 290-296.
gy harvesting technology[J]. Electronic Design Engi⁃
[2] 能量收集技术将解决传感器更换电池的烦恼[EB/OL].
neering, 2016, 24(10): 105-107.
2016-01-27.https://m.chinaaet.com/article/3000014255.
[11] YANG W, TOWFIGHIAN S. A parametric resonator
[3] 李敏, 李玲, 张加宏, 等 . 可穿戴生理信息监测的自供
with low threshold excitation for vibration energy har⁃
电 系 统 研 究[J]. 传 感 技 术 学 报 , 2024, 37(1):
vesting[J]. Journal of Sound and Vibration, 2019,
147-155.
446: 129-143.
LI Min, LI Ling, ZHANG Jiahong, et al. Research on
[12] 唐炜, 王小璞, 曹景军 . 非线性磁式压电振动能量采
self-powered system for wearable physiological informa⁃
集 系 统 建 模 与 分 析[J]. 物 理 学 报 , 2014, 63(24):
tion monitoring[J]. Chinese Journal of Sensors and Ac⁃
76-89.
tuators, 2024, 37(1): 147-155.
TANG Wei, WANG Xiaopu, CAO Jingjun. Modeling
[4] 丁江, 卢蒙恩, 曾梓洋, 等 . 一种可调谐非线性磁式压
and analysis of piezoelectric vibration energy harvesting
电能量采集器[J]. 华南理工大学学报(自然科学版),
system using permanent magnetics[J]. Acta Physica Si⁃
2023, 51(9): 30-43.
nica, 2014, 63(24): 76-89.
DING Jiang, LU Meng’en, ZENG Ziyang, et al. A
[13] 张宇轩, 薛至诚, 王德波 . 新型组合螺旋压电能量收
tunable nonlinear magnetic piezoelectric energy harvest⁃
集器的设计与研究[J]. 微电子学, 2022, 52(6): 1065-
er[J]. Journal of South China University of Technology
1070.
(Natural Science Edition), 2023, 51(9): 30-43.
ZHANG Yuxuan, XUE Zhicheng, WANG Debo. De⁃
[5] KIM J, DORIN P, WANG K W. Vibration energy har⁃
sign and research on a novel combined helical piezoelec⁃
vesting enhancement exploiting magnetically coupled bi⁃
tric energy harvester[J]. Microelectronics, 2022, 52
stable and linear harvesters[J]. Smart Materials and
Structures, 2020, 29(6): 065006. (6): 1065-1070.
[6] 孙航, 王海, 史宁, 等 . 基于非线性磁力的压电式旋转 [14] YAO M H, MA L, ZHANG W. Study on power gen⁃
能 量 采 集 器[J]. 传 感 技 术 学 报 , 2023, 36(9): 1377- erations and dynamic responses of the bistable straight
1384. beam and the bistable L-shaped beam[J]. Science China
SUN Hang, WANG Hai, SHI Ning, et al. Rotary Technological Sciences, 2018, 61(9): 1404-1416.
piezoelectric energy harvester based on nonlinear mag⁃ [15] HARNE R L, THOTA M, WANG K W. Bistable en⁃
netic force[J]. Chinese Journal of Sensors and Actua⁃ ergy harvesting enhancement with an auxiliary linear os⁃
tors, 2023, 36(9): 1377-1384. cillator[J]. Smart Materials and Structures, 2013, 22
[7] 闫晓东, 周公博, 徐懋, 等 . 宽频自调谐压电振子发电 (12): 125028.
性 能 研 究[J]. 振 动 工 程 学 报 , 2023, 36(6): 1647- [16] ZHOU Z Y, QIN W Y, DU W F, et al. Improving en⁃
1656. ergy harvesting from random excitation by nonlinear
YAN Xiaodong, ZHOU Gongbo, XU Mao, et al. flexible bi-stable energy harvester with a variable poten⁃
Power generation performance analysis of broadband tial energy function[J]. Mechanical Systems and Signal
self-tuning piezoelectric vibrator[J]. Journal of Vibra⁃ Processing, 2019, 115: 162-172.
tion Engineering, 2023, 36(6): 1647-1656. [17] YANG T, CAO Q J. Dynamics and performance evalu⁃
[8] 张坤, 赵毫杰, 冯伟, 等 . 低频振动能量收集技术研究 ation of a novel tristable hybrid energy harvester for ul⁃
进展[J]. 仪表技术与传感器, 2022(8): 100-107. tra-low level vibration resources[J]. International Jour⁃
ZHANG Kun, ZHAO Haojie, FENG Wei, et al. Re⁃ nal of Mechanical Sciences, 2019, 156: 123-136.
search advance in low-frequency vibration energy har⁃ [18] LI H T, DING H, JING X J, et al. Improving the per⁃

