A review of brake energy recovery systems and vibration energy recovery systems in new energy vehicles
DOI:
https://doi.org/10.61173/094x1d72Keywords:
braking energy recovery, braking force distribution, control strategy, influencing factorsAbstract
As the automotive industry faces the dual challenges of energy crisis and environmental degradation, developing new energy vehicles (NEVs) has become a focal point. This paper presents a comprehensive overview of braking and vibration energy recovery systems in NEVs. Specifically, it explores these systems’ theoretical foundations, control strategies, and current research status. The braking energy recovery system aims to enhance energy efficiency by capturing and reusing the energy generated during braking. In contrast, the vibration energy recovery system seeks to expand energy recovery channels by absorbing vehicle vibrations. While considerable research has been conducted on braking energy recovery, there is still a need for further exploration in vibration energy recovery. By optimizing these systems, we aim to contribute to the sustainable growth of the NEV industry, ultimately benefiting both the environment and energy conservation efforts.
References
Figure3. piezoelectric[Owner-draw]. [1]Li Zhongdong. Toyota’s new-generation Prius : a model (3) Hydraulic for hybrid vehicles in the new era [J]. Automobiles and Chen-Ching Ting et al. designed a hydraulic device[21]. Accessories,2017(02):39-41. When a car drives through the device, the piston moves [2]LI Xiaohui,PENG Jie,HE Defang. Development Status and downward under the action of the wheels, and the oil in Policy Planning of Electric Vehicles in Japan[J]. Global Science the oil chamber flows out of the check valve under pres- and Technology Economy sure into the accumulator, which drives the power genera- Outlook,2015,30(04):43-47. tor to generate electricity. The efficiency of the device was [3]Ma Li. Development of Electric Vehicles in Japan and calculated to be 40%. Current Status of Product Technology[J]. Hubei Automobile, 2003(1):14-19. [4]Ren Hongtao. Development Status and Targets of Electric Vehicles in the United States[J]. Global Technology and Economic Outlook, 2011.
026(005):61-65. Transportation Technology and Economy Transportation [5]Karen Fierst, Shuzhen Zhang. Status and development of Technology and Economy,2020,22(02):16-19+68. electric vehicles in the United States (III)[J]. Automobile Repair [15]Gong Xingchen. Technical Introduction of BAIC New and Energy EU Series[J]. Automobile and Driving Maintenance Maintenance,2015(09):22+24+26. (Maintenance [6]WANG Jun,SHEN Jin-sheng. Development Dynamics Edition),2017(S1):32-34. and Trends of Hybrid Electric Vehicles at Home and [ 1 6 ] F e n g X i n . U P N e w P o w e r B Y D E 6 [ J ] . Wo r l d A b r o a d [ J ] . H i g h w a y T r a n s p o r t a t i o n Te c h n o l o g y Automotive,2011(04):68-71. Technology,2000(01):73-76. [17]Fan Zhidan. Overview of the development status [7]Steinbach . Regenerative braking system for hybrid and of electric vehicles at home and abroad[J]. Automobile electric vehicles[J]. Automobiles and Accessories,2014(06):35. Maintenance,2018(06):2-3. [8]Anonymous. Bosch Chassis Control Systems China[J]. World [18]BAO Jiajian, LI Huaibin, XU Yuejin, et al. Analysis of Car, 2013(z1):92-92. domestic electric vehicle industry development status[J]. [9]GUO Yajun. Research on regenerative braking ABS system Commercial Vehicle Commercial Vehicles,2013(10):23-25. for hybrid city bus [D]. Jilin University,2007. [19]JIN Liqiang,SUN Zhixiang,WANG Yi,et al. Research [10]JI Fenzhu,DU Farong,ZHU Wenbo. Energy economy of on regenerative braking energy recovery of electric wheeled electric vehicles based on braking intent recognition[J]. Beijing vehicles based on fuzzy control[J]. Automotive Engineer- Aviation Journal of Air and Space University,2016,42(01):21-27. ing,2017,39(10):1101-1105+1197. [11]Wang, Da-Song. Permanent Magnet Synchronous Motor [20] Chen, R.-W. Novel Environmental Energy Harvesting Control and Energy Recovery for Electric Vehicles [D]. Technology [M]. National Defense Industry Press, 2011. University of Electronic Science and Technology,2019. [21] Albarello D, Lunedei E. Structure of an ambient vibration [12]WANG Hu. Energy Recovery Control Method Based wavefield in the frequency range of engineering interest ([0.5, on Braking Intensity [J]. Sch ool of Syngy angInstitutio n [20] Hz): insights from numerical modelling[J]. Near Surface University , Shang yang , 2020,42(04):417-422. Journal of Geophysics, 2011, 9(1806):543-559. Shenyang Industrial University,2020,42(04):417-422. [22] Miller L M, Halvorsen E, Dong T, et al. Modeling [13]Zou Kairui. Research on regenerative braking energy and experimental verification of low-frequency MEMS feedback control method for electric vehicles [D]. Changchun energy harvesting from ambient vibrations[J]. Journal of University of Technology,2020. Micromechanics & Microengineering, 2011, 21(4):45029- [14]WEI Zhicheng,DING Jian,TANG Fengmin,et al. Research 45041(13). on energy recovery control strategy of pure electric vehicle[J].
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