Abstract:
Mass penetration and market dominance of Electric Vehicles (EVs) are expected in the upcoming years. Due to their frequent charging needs, not only public and private cha...Show MoreMetadata
Abstract:
Mass penetration and market dominance of Electric Vehicles (EVs) are expected in the upcoming years. Due to their frequent charging needs, not only public and private charging stations are being built, but also V2V charging options are considered. This forms a charging network with various suppliers and EV customers which can communicate to schedule charging operations. While an app can be designed to develop matching algorithms for charging schedules, the system also needs a convenient payment method that will enable privacy-preserving transactions among the suppliers and EVs. In this paper, we adopt a Bitcoin-based payment system for the EV charging network payments. However, Bitcoin has a transaction fee which would be comparable to the price of the charging service most of the time and thus may not be attractive to users. High transaction fees can be eliminated by building a payment network in parallel to main ledger, with permission and signatures. In this paper, we design and implement such a network among charging stations and mobile EVs with flow, connectivity and fairness constraints, and demonstrate results for the feasibility of the scheme under different circumstances. More specifically, we propose a payment network optimization model for determining payment channels among charging stations. We present numerical results on the characteristics of the network model by using realistic use cases.
Date of Conference: 30 July 2018 - 03 August 2018
Date Added to IEEE Xplore: 03 June 2019
ISBN Information:
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- IEEE Keywords
- Index Terms
- State Of Charge ,
- Electric Vehicles ,
- Payment Network ,
- Optimal Model ,
- Payment System ,
- Higher Fees ,
- Electric Vehicles Charging ,
- Transaction Fees ,
- Real Use Case ,
- Total Cost ,
- Network Formation ,
- Network Topology ,
- Privacy Issues ,
- Decision Variables ,
- Number Of Approaches ,
- Central Node ,
- Betweenness Centrality ,
- Types Of Attacks ,
- Flow Problem ,
- Credit Card ,
- Channel Capacity ,
- Cryptocurrencies ,
- Digital Currency ,
- Link Capacity ,
- Planning Period ,
- Intermittent Sources ,
- Formation Problem
- Author Keywords
Keywords assist with retrieval of results and provide a means to discovering other relevant content. Learn more.
- IEEE Keywords
- Index Terms
- State Of Charge ,
- Electric Vehicles ,
- Payment Network ,
- Optimal Model ,
- Payment System ,
- Higher Fees ,
- Electric Vehicles Charging ,
- Transaction Fees ,
- Real Use Case ,
- Total Cost ,
- Network Formation ,
- Network Topology ,
- Privacy Issues ,
- Decision Variables ,
- Number Of Approaches ,
- Central Node ,
- Betweenness Centrality ,
- Types Of Attacks ,
- Flow Problem ,
- Credit Card ,
- Channel Capacity ,
- Cryptocurrencies ,
- Digital Currency ,
- Link Capacity ,
- Planning Period ,
- Intermittent Sources ,
- Formation Problem
- Author Keywords