Optimal placement of electric vehicle chargers: A mixed-integer linear programming model

Electric vehicle adoption is growing, but New Hampshire lags in public charging infrastructure, especially in rural areas. This gap increases range anxiety and economic inefficiencies. In this study, we developed a mixed-integer linear programming (MILP) model to optimally locate new electric vehicle chargers statewide, maximizing coverage and equity under budget constraints. The model includes geographic coverage requirements, population-weighted equity, capacity limits, and a $\$$28 million budget. Moreover, the model recommends 855 Level 2 chargers and 149 Direct Current Fast Chargers (DCFCs) across 247 ZIP Codes, nearly doubling public charging capacity and achieving 98.8% coverage within defined service radii. The plan offers a cost-effective strategy that balances urban and rural needs. By integrating coverage, equity, and cost considerations, the model provides an adaptable framework for electric vehicle infrastructure planning and demonstrates how operations research supports sustainable transportation policy.

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Publication Details

Journal
Clean Technologies and Recycling
Published
2026-01-01
DOI
https://doi.org/10.3934/ctr.2026001
Primary Topic
Electric Vehicles and Infrastructure
Type
article
Field-Weighted Citation Impact
0.00
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article

Optimal placement of electric vehicle chargers: A mixed-integer linear programming model

Emmanuel Olabayo Fagbenle, Joubin Zahiri Khameneh
Clean Technologies and Recycling
Electric Vehicles and Infrastructure
article

Optimal placement of electric vehicle chargers: A mixed-integer linear programming model

Emmanuel Olabayo Fagbenle, Joubin Zahiri Khameneh
article en

Abstract

Electric vehicle adoption is growing, but New Hampshire lags in public charging infrastructure, especially in rural areas. This gap increases range anxiety and economic inefficiencies. In this study, we developed a mixed-integer linear programming (MILP) model to optimally locate new electric vehicle chargers statewide, maximizing coverage and equity under budget constraints. The model includes geographic coverage requirements, population-weighted equity, capacity limits, and a $\$$28 million budget. Moreover, the model recommends 855 Level 2 chargers and 149 Direct Current Fast Chargers (DCFCs) across 247 ZIP Codes, nearly doubling public charging capacity and achieving 98.8% coverage within defined service radii. The plan offers a cost-effective strategy that balances urban and rural needs. By integrating coverage, equity, and cost considerations, the model provides an adaptable framework for electric vehicle infrastructure planning and demonstrates how operations research supports sustainable transportation policy.

Clean Technologies and RecyclingVol. 6(1)
University of New Hampshire (US)
Industry, innovation and infrastructure
Openalex Percentile: Top 95%
Electric Vehicles and Infrastructure
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