New Energy Vehicle Development Influencing Factors and Trend Forecast Exploration

Authors

  • Kelong Hu
  • Baoli Li

DOI:

https://doi.org/10.54097/kam2zw56

Keywords:

New Energy Electric Vehicles, Multiple Linear Regression Analysis, Pearson Correlation Coefficient, Time Series Forecasting ARIMA Algorithm.

Abstract

The rapid development of new energy electric vehicles (EVs) stems from the urgent need to solve the problems of environmental pollution and energy consumption of traditional fuel vehicles. In this study, four main factors affecting the development of new energy electric vehicles in China are selected from the official open source website: the number of charging piles, energy density, vehicle sales and market share. Through multiple linear regression analysis, Pearson's correlation coefficient and scatter plot analysis, it is found that the number of charging piles and energy density are the main influencing factors. In addition, the ARIMA algorithm is applied to predict the development trend of new energy electric vehicles in China in the next ten years. Finally, the negative correlation between new energy electric vehicles and traditional energy vehicles is revealed by comparing the development data of global new energy and traditional energy vehicles from 2011 to 2023, combined with scatter plot analysis.

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References

JIANG Jia-Chen, MEI Yuxin, PAN Yao-Yao, et al. Development assessment and sales forecast of new energy vehicles [J]. Journal of Taizhou College, 2024, 46 (03): 9-15.

Wang Pin. Development Status and Countermeasures of New Energy Vehicles in China [J]. Automobile Practical Technology, 2024, 49 (08): 187-191.

FU Ruoqi, XUE Jingyi, GUO Yuqi, et al. Development status and suggestions of charging pile facilities for new energy vehicles in China [J]. Times Automotive, 2024, (08): 130-132.

WEI Guo, JIANG Hongmei, WEI Kedin, et al. Influencing factors and countermeasure suggestions for the development of China's new energy vehicle industry [J]. Equipment Manufacturing Technology, 2023, (12): 136-139.

Tian Gen. Application and development of cloud computing technology in intelligent manufacturing of new energy vehicles [J]. Energy Storage Science and Technology, 2024, 13 (05): 1748-1750.

ZHANG Mingming, ZHANG Mingdong. Multivariate linear model based on grey load prediction for predicting settlement of high-rise buildings [J]. Surveying and Spatial Geographic Information, 2024, 47 (05): 195-197+201.

ZHOU Kun, XU Yunfei, QI Haowei. Short-term dynamic dispatch model of new energy generation based on improved ARIMA [J]. Computer and Information Technology, 2024, 32 (01): 56-61.

DONG Lipeng, NIE Qinghao, SUN Xiaokun, et al. Analysis of the influence of shield tunneling parameters on surface settlement based on Pearson's correlation coefficient method [J]. Construction Technology (in Chinese and English), 2024, 53 (01): 116-123.

CHEN Zhaomeng, LIU Yue. Threshold exploration of early warning signals in time series - based on variable point autoregressive model [C] // Chinese Psychological Association. Abstracts Collection of the 25th National Psychology Academic Conference - Symposium. Institute of Brain and Psychological Sciences, Sichuan Normal University; 2023: 3.

Sun QT, Han YN, Liu Y, et al. Application of an autoregressive moving average (ARIMA) model to predict rat density trends in Shandong Province [J]. Chinese Journal of Vector Biology and Control, 2021, 32 (06): 744-748.

Xia Zhibin, Jing Shi. Miao Wei: The trend of new energy vehicles replacing traditional fuel vehicles has been formed [N]. China Business News, 2023-12-11 (C08).

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Published

20-08-2024

How to Cite

Hu, K., & Li, B. (2024). New Energy Vehicle Development Influencing Factors and Trend Forecast Exploration. Highlights in Science, Engineering and Technology, 112, 454-464. https://doi.org/10.54097/kam2zw56