Integrating system dynamics and agent-based modeling: A data-driven framework for predicting electric vehicle market penetration and GHG emissions reduction under various incentives scenarios
Artikel i vetenskaplig tidskrift, 2024

As the growing deployment towards transportation electrification, a critical focus has emerged on quantifying the reduction contribution of greenhouse gas emissions from electric vehicles towards achieving carbon neutrality under diverse policy scenarios in the future. This necessitates a dynamic model that captures the evolving composition of the vehicle fleet and accurately forecasts the penetration and developmental trajectory of the electric vehicles in the car market. However, previous studies have largely overlooked the heterogeneity in user usage attributes, rendering them less effective in evaluating the impact of usage-based incentives on electric vehicle market penetration. To bridge this research gap, this study introduces an innovative, data-driven framework that integrates system dynamics and agent-based model. The proposed model can predict levels of electric vehicle penetration and corresponding greenhouse gas emission reductions within the private passenger vehicle sector, under a variety of policy scenarios. Our findings indicate that usage-based incentives, when implemented with optimal intensity, yield more significant emission reduction impacts and long-term economic benefits compared to conventional purchase-based subsidy. These insights not only furnish actionable policy suggestions to expedite the electric vehicle industry's growth in China but also offer valuable implications for other countries seeking to implement effective strategies for combating climate change and fostering sustainable transportation initiatives.

Usage-based incentives

Electric vehicles

GHG emission

System dynamics

Agent-based model

Författare

Weipeng Zhan

Chalmers, Rymd-, geo- och miljövetenskap, Fysisk resursteori

Beijing Institute of Technology

Zhenpo Wang

Beijing Institute of Technology

Junjun Deng

Beijing Institute of Technology

Peng Liu

Beijing Institute of Technology

Dingsong Cui

Beijing Institute of Technology

Applied Energy

0306-2619 (ISSN) 18729118 (eISSN)

Vol. 372 123749

Styrkeområden

Transport

Energi

Ämneskategorier

Transportteknik och logistik

Energisystem

DOI

10.1016/j.apenergy.2024.123749

Mer information

Senast uppdaterat

2024-08-05