Transport-Energy Integration Driven Pathways for Electromobility: A Swedish Case Study

The integration of transportation and energy is essential for sustainability, yet large-scale EV adoption faces challenges such as inaccurate energy demand forecasting, in-efficient charging deployment, and increased grid stress. This study proposes the Electrified Optimization for Infrastructure and Energy Transmission (EOIET) framework, integrating en-ergy demand estimation, charging infrastructure optimization, and grid impact assessment. Urban demand is estimated from historical data, while highway consumption is predicted via an LSTM-GRU model with Rayleigh distribution. Charging stations are optimized using a discrete urban distribution model for cities and simulated annealing for highways. Grid stability under large- scale EV adoption is evaluated through Monte Carlo simulations. Validated with Swedish data, this framework offers a scalable and resilient approach to transportation-energy integration.

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Publication Details

Published
2025-04-15
DOI
https://doi.org/10.1109/acpee64358.2025.11041568
Primary Topic
Electric Vehicles and Infrastructure
Type
article
Field-Weighted Citation Impact
0.00
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article

Transport-Energy Integration Driven Pathways for Electromobility: A Swedish Case Study

Torbjörn Thiringer, S. Jin
Electric Vehicles and Infrastructure
article

Transport-Energy Integration Driven Pathways for Electromobility: A Swedish Case Study

Torbjörn Thiringer, S. Jin
article en

Abstract

The integration of transportation and energy is essential for sustainability, yet large-scale EV adoption faces challenges such as inaccurate energy demand forecasting, in-efficient charging deployment, and increased grid stress. This study proposes the Electrified Optimization for Infrastructure and Energy Transmission (EOIET) framework, integrating en-ergy demand estimation, charging infrastructure optimization, and grid impact assessment. Urban demand is estimated from historical data, while highway consumption is predicted via an LSTM-GRU model with Rayleigh distribution. Charging stations are optimized using a discrete urban distribution model for cities and simulated annealing for highways. Grid stability under large- scale EV adoption is evaluated through Monte Carlo simulations. Validated with Swedish data, this framework offers a scalable and resilient approach to transportation-energy integration.

Chalmers University of Technology (SE)
Affordable and clean energy
Openalex Percentile: Top 87%
Electric Vehicles and Infrastructure
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