Research on Whole-Vehicle Energy Efficiency Analysis and Optimization Based on Multi-Sensor Data Acquisition
DOI:
https://doi.org/10.54097/65f8rx77Keywords:
Energy Management, Sensor, CAN Bus, Intelligent Connectivity.Abstract
This study addresses the existing issues in energy management of traditional automobiles and proposes a series of optimization approaches. Currently, the application of sensors in the automotive field is becoming increasingly extensive. Various types of sensors are arranged in different vehicle systems according to their functions to realize the monitoring of the vehicle's overall energy flow. Furthermore, by combining with artificial intelligence, real-time management of the vehicle's overall energy flow is achieved. In this paper, the functions of various sensors are elaborated in detail, along with their selection and arrangement; the connection between data transmission and CAN bus is discussed to realize signal frequency modulation and transmission; and prospective suggestions for combining with artificial intelligence neural networks are put forward to promote the further development of energy management. Meanwhile, this research establishes connections with studies related to intelligent connected vehicles, facilitating the intelligent development of fuel-powered vehicles, battery electric vehicles, and hybrid electric vehicles. It aims to achieve the clean and energy-efficient development of various types of automobiles and enhance the efficiency of energy utilization.
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[1] Xu Zhibin. Evolution and Trend Analysis of Multi-sensor Fusion Technology in Automotive Intelligent Detection [J]. Automotive Aftermarket, 2024.
[2] Chen Zhaozhang, Zhu Xianglin. Photoelectric Speed Sensor and Its Signal Conditioning Circuit [J]. Sensor Technology, 2002(08): 53 - 58.
[3] Han Chenghao, Gao Xiaohong. CAN Bus Technology and Its Application [J]. Journal of Jilin Jianzhu University, 2010, 32 (2): 146 - 149.
[4] Wang Zhenpo, Sun Fengchun. Analysis of Energy Consumption Allocation and Influencing Factors of Electric Vehicles [J]. Journal of Beijing Institute of Technology, 2004, 24 (4): 306 - 310.
[5] Lian Fengxia. Global Optimal Energy Management Strategy for Hybrid Electric Vehicles Based on Road Condition Information [D]. Shandong University, Supervisor: Cui Naxin, 2013.
[6] Zhang Kangkang. Research on Energy Efficiency Optimization Methods for Battery Electric Vehicles [D]. Beijing: Tsinghua University, 2015.
[7] Peng Yongtao. Energy Management Control Strategy and Control Parameter Optimization for 48V Hybrid Electric Vehicles [D]. Yanshan University, 2019. Supervisors: Li Hao, Li Yushan.
[8] Mao Jian, Zhao Hongdong, Yao Jingjing. Development and Application of Artificial Neural Networks [J]. Electronic Technology & Software Engineering, 2011 (24).
[9] Li Keqiang, Dai Yifan, Li Shengbo, Bian Mingyuan. Development Status and Trend of Intelligent Connected Vehicle (ICV) Technology [J]. Automotive Engineering, 2017, 39 (4): 385 - 390.
[10] Li Keqiang, Chen Tao, Luo Yugong, Wang Jianqiang. Intelligent and Environmentally Friendly Vehicles: Concept, Architecture and Engineering Implementation [J]. Chinese Journal of Automotive Engineering, 2010, 10.
[11] Guo Kaiming. Artificial Intelligence Development, Industrial Structure Transformation and Upgrading, and Changes in Labor Income Share [J]. Economic Perspectives, 2019 (7): 1 - 13.
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