A microgrid deployment framework to support drayage electrification

The electrification of heavy-duty commercial vehicles (HDCVs) is key to enhancing air quality and reducing urban air pollution, but it also imposes significant demands on an electric grid not designed for such high loads. Without complementary infrastructure, electrification may yield limited air quality improvements. This article explores the critical role of microgrids-integrating solar photovoltaics and battery storage-in supporting HDCV electrification. We present an integrated framework to identify viable microgrid sites in a given region, estimate deployment costs, and optimize power use to reduce dependence on the grid. As a case study, we apply the framework to the region around the Port of Savannah, GA, USA, demonstrating how targeted microgrid deployment can enhance grid capacity, improve energy resiliency, and support electrified freight transport.

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Publication Details

Journal
iScience
Published
2025-10-17
DOI
https://doi.org/10.1016/j.isci.2025.113804
Primary Topic
Smart Grid Energy Management
Type
article
Field-Weighted Citation Impact
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article

A microgrid deployment framework to support drayage electrification

Ruixiao Sun, Vivek A. Sujan, Joseph N. E. Lucero, Simona Onori et al.
iScience
Smart Grid Energy Management
article

A microgrid deployment framework to support drayage electrification

Ruixiao Sun, Vivek A. Sujan, Joseph N. E. Lucero, Simona Onori, Brandon A. Miller
article en

Abstract

The electrification of heavy-duty commercial vehicles (HDCVs) is key to enhancing air quality and reducing urban air pollution, but it also imposes significant demands on an electric grid not designed for such high loads. Without complementary infrastructure, electrification may yield limited air quality improvements. This article explores the critical role of microgrids-integrating solar photovoltaics and battery storage-in supporting HDCV electrification. We present an integrated framework to identify viable microgrid sites in a given region, estimate deployment costs, and optimize power use to reduce dependence on the grid. As a case study, we apply the framework to the region around the Port of Savannah, GA, USA, demonstrating how targeted microgrid deployment can enhance grid capacity, improve energy resiliency, and support electrified freight transport.

iScienceVol. 28(11)
Oak Ridge National Laboratory (US), National Transportation Research Center (US), SLAC National Accelerator Laboratory (US), Stanford University (US)
Openalex Percentile: Top 70%
Smart Grid Energy Management
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A microgrid deployment framework to support drayage electrification — Ruixiao Sun, Vivek A. Sujan, et al. · iScience (2025) | TGRS Research Map | TGRS