Abstract

As environmental and energy issues have attracted more and more attention from the public, research on electric vehicles has become extensive and in-depth. As driving range limit is one of the key factors restricting the development of electric vehicles, the energy supply of electric vehicles mainly relies on the building of charging stations, battery swapping stations, and wireless charging lanes. Actually, the latter two kinds of infrastructure are seldom employed due to their immature technology, relatively large construction costs, and difficulty in standardization. Currently, charging stations are widely used since, in the real world, there are different types of charging station with various levels which could be suitable for the needs of network users. In the past, the study of the location charging stations for battery electric vehicles did not take the different sizes and different types into consideration. In fact, it is of great significance to set charging stations with multiple sizes and multiple types to meet the needs of network users. In the paper, we define the model as a location problem in a capacitated network with an agent technique using multiple sizes and multiple types and formulate the model as a 0–1 mixed integer linear program (MILP) to minimize the total trip travel time of all agents. Finally, we demonstrate the model through numerical examples on two networks and make sensitivity analyses on total budget, initial quantity, and the anxious range of agents accordingly. The results show that as the initial charge increases or the budget increases, travel time for all agents can be reduced; a reduction in range anxiety can increase travel time for all agents.

Highlights

  • In recent years, Battery Electric Vehicles (BEVs) have developed rapidly because of the serious environmental pollution and the huge energy consumption of fuel vehicles [1,2,3]

  • Plenty of city buses have been gradually popularized as electric vehicles, and the proportion of BEVs in private vehicles is increasing too [5]

  • The flow-refueling location model divides a road into different segments, BEVs do not need to charge at each segment, charging stations are established in the joint of each segment to optimize the location of charging stations

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Summary

Introduction

Battery Electric Vehicles (BEVs) have developed rapidly because of the serious environmental pollution and the huge energy consumption of fuel vehicles [1,2,3]. Since electric vehicles use electricity and don’t emit exhaust gas, they greatly reduce the pollution of the environment and reduce the consumption of non-renewable energy such as coal and oil. These kinds of vehicles are comfortable, safe, convenient in operation, noise free and possess a long service life [3]. Fast charging can charge up to 80 percent of a vehicle’s rated battery capacity within 0.2 to 1 h. The government should set up different sizes and types of charging stations to meet different needs of travelers

Literature Review
Objectives and Contributions
Notation
Basic Assumptions
Model Formulation
Numerical Examples
Considering Different Total Budget
Considering Different Levels o1f3Initial C0apacity5
A Lager Example
Findings
Co3nclusions an3 d Future Rese4arch
Full Text
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