A Delay-Tolerant Payment Scheme Based on the Ethereum Blockchain
|Title:||A Delay-Tolerant Payment Scheme Based on the Ethereum Blockchain||Authors:||Hu, Yining; Manzoor, Ahsan; Ekparinya, Parinya; Liyanage, Madhusanka; et al.||Permanent link:||http://hdl.handle.net/10197/11692||Date:||6-Mar-2019||Online since:||2020-11-11T12:29:31Z||Abstract:||Digital banking as an essential service can be hard to access in remote, rural regions where the network connectivity is unavailable or intermittent. The payment operators like Visa and Mastercard often face difficulties reaching these remote, rural areas. Although micro-banking has been made possible by short message service or unstructured supplementary service data messages in some places, their security flaws and session-based nature prevent them from wider adoption. Global-level cryptocurrencies enable low-cost, secure, and pervasive money transferring among distributed peers, but are still limited in their ability to reach people in remote communities. We propose a blockchain-based digital payment scheme that can deliver reliable services on top of unreliable networks in remote regions. We focus on a scenario where a community-run base station provides reliable local network connectivity while intermittently connects to the broader Internet. We take advantage of the distributed verification guarantees of the Blockchain technology for financial transaction verification and leverage smart contracts for secure service management. In the proposed system, payment operators deploy multiple proxy nodes that are intermittently connected to the remote communities where the local blockchain networks, such as Ethereum are composed of miners, vendors, and regular users. Through probabilistic modeling, we devise design parameters for the blockchain network to realize robust operation over the top of the unreliable network. Furthermore, we show that the transaction processing time will not be significantly impacted due to the network unreliability through extensive emulations on a private Ethereum network. Finally, we demonstrate the practical feasibility of the proposed system by developing Near Field Communication (NFC)-enabled payment gateways on Raspberry-Pis, a mobile wallet application and mining nodes on off-The-shelf computers.||Funding Details:||European Commission Horizon 2020||Type of material:||Journal Article||Publisher:||IEEE||Journal:||IEEE Access||Volume:||7||Start page:||33159||End page:||33172||Copyright (published version):||2019 IEEE||Keywords:||Blockchain; Internet; Banking; Smart contracts; Satellites; Security; Base stations; Delay-tolerant network; Digital banking; Remote regions||DOI:||10.1109/ACCESS.2019.2903271||Language:||en||Status of Item:||Peer reviewed||ISSN:||2169-3536|
|Appears in Collections:||Computer Science Research Collection|
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