Logo image
Co-optimizing power system planning and transportation logistics to supply essential loads with mobile energy storage systems
Journal article   Open access   Peer reviewed

Co-optimizing power system planning and transportation logistics to supply essential loads with mobile energy storage systems

Iman Soltani, Alireza Ghadiri Jafarbiglou and Farhad Shahnia
Energy reports, Vol.16, 109721
2026
pdf
Published12.56 MBDownloadView
Open Access CC BY V4.0

Abstract

Battery transport and logistics (BTL) Critical loads Mobile and stationary energy storage system (ESS) Mobile PV-ESS setups Multi-regional power system planning and operation Renewable energy sources
This study aims to ensure the continuity of supplying the critical loads in electrical power systems through mobile energy storage systems (ESSs) powered by renewable energy sources, and to benchmark their performance against stationary alternatives. An integrated planning framework is developed to couple the electric network with road-transport logistics, extending conventional lifecycle costing to include both electrical network infrastructure and the costs of battery mobility. To enable realistic planning and operational analysis, a multi-regional power system planning and operation model and a battery transport and logistics model is jointly formulated and solved to represent the behavior of mobile and stationary ESSs within the power system. The empirical focus is on a real-world example of northwest and western Iran, evaluating mobile photovoltaic supported ESS setups versus stationary configurations for sustaining 50–100 kW critical loads during grid outages. The assessment accounts for seasonal resource variability, deployment windows, setup times, and inverter/battery constraints across four scenarios, and complements these analyses with projections for fixed solar farms in 2030, 2040, and 2050 under rising solar penetration. Results indicate that mobile systems deliver rapid, relocatable security for critical loads, whereas stationary assets provide scalable, planned robustness over longer horizons; together, they constitute a complementary pathway to reliable, low-carbon electricity supply.

Details

UN Sustainable Development Goals (SDGs)

This output has contributed to the advancement of the following goals:

#7 Affordable and Clean Energy
#9 Industry, Innovation and Infrastructure

Source: SDGs in the Output

Metrics

17 File views/ downloads
4 Record Views
Logo image