Resilient design of distribution grid automation system against cyber-physical attacks using blockchain and smart contract

The current Distribution Grid Automation (DGA) Systems are being heavily dependent on the Information and Communication Technologies (ICT) infrastructure for its proper operation. The DGA architectures are predominantly centralized and usually deployed on a dedicated hardware. This increases the ris...

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Autores principales: Abhinav Sadu, Akshay Jindal, Gianluca Lipari, Ferdinanda Ponci, Antonello Monti
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Lenguaje:EN
Publicado: Elsevier 2021
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spelling oai:doaj.org-article:6344460cd9ca4332bd370b514f413e522021-11-22T04:23:27ZResilient design of distribution grid automation system against cyber-physical attacks using blockchain and smart contract2666-953610.1016/j.bcra.2021.100010https://doaj.org/article/6344460cd9ca4332bd370b514f413e522021-03-01T00:00:00Zhttp://www.sciencedirect.com/science/article/pii/S2096720921000051https://doaj.org/toc/2666-9536The current Distribution Grid Automation (DGA) Systems are being heavily dependent on the Information and Communication Technologies (ICT) infrastructure for its proper operation. The DGA architectures are predominantly centralized and usually deployed on a dedicated hardware. This increases the risk of blackouts under a coordinated cyber-physical attack. The compromise of the dedicated hardware that hosts the central coordinator of the DGA automation results in a blackout. Though many countermeasures have already been proposed for tackling different types cyber and physical attacks on the ICT infrastructure, very few measures have been proposed to ensure the availability of the grid operation functions, even when it is compromised. This study proposes an automatic, distributed approach based on Blockchain and Smart Contract that ensures the availability of the core DGA functions even if the central coordinator that operates the grid is compromised. This is done by virtualizing and migrating/re-initialising these functions from the dedicated hardware that was compromised to another. Additionally, a Multi-Attribute Decision Making based method is incorporated into the Smart Contract that helps in selection of the optimal hardware that can host the function considering its limitations (hardware and software). Finally, a proof of concept implementation of the proposed solution is presented that utilizes the Calvin IoT (Internet of Things) platform, Flow programming tool and Hyperledger fabric and its performance is evaluated.Abhinav SaduAkshay JindalGianluca LipariFerdinanda PonciAntonello MontiElsevierarticleBlockchainDistribution grid automationSmart contractMultiple attribute decision makingResilienceInformation technologyT58.5-58.64ENBlockchain: Research and Applications, Vol 2, Iss 1, Pp 100010- (2021)
institution DOAJ
collection DOAJ
language EN
topic Blockchain
Distribution grid automation
Smart contract
Multiple attribute decision making
Resilience
Information technology
T58.5-58.64
spellingShingle Blockchain
Distribution grid automation
Smart contract
Multiple attribute decision making
Resilience
Information technology
T58.5-58.64
Abhinav Sadu
Akshay Jindal
Gianluca Lipari
Ferdinanda Ponci
Antonello Monti
Resilient design of distribution grid automation system against cyber-physical attacks using blockchain and smart contract
description The current Distribution Grid Automation (DGA) Systems are being heavily dependent on the Information and Communication Technologies (ICT) infrastructure for its proper operation. The DGA architectures are predominantly centralized and usually deployed on a dedicated hardware. This increases the risk of blackouts under a coordinated cyber-physical attack. The compromise of the dedicated hardware that hosts the central coordinator of the DGA automation results in a blackout. Though many countermeasures have already been proposed for tackling different types cyber and physical attacks on the ICT infrastructure, very few measures have been proposed to ensure the availability of the grid operation functions, even when it is compromised. This study proposes an automatic, distributed approach based on Blockchain and Smart Contract that ensures the availability of the core DGA functions even if the central coordinator that operates the grid is compromised. This is done by virtualizing and migrating/re-initialising these functions from the dedicated hardware that was compromised to another. Additionally, a Multi-Attribute Decision Making based method is incorporated into the Smart Contract that helps in selection of the optimal hardware that can host the function considering its limitations (hardware and software). Finally, a proof of concept implementation of the proposed solution is presented that utilizes the Calvin IoT (Internet of Things) platform, Flow programming tool and Hyperledger fabric and its performance is evaluated.
format article
author Abhinav Sadu
Akshay Jindal
Gianluca Lipari
Ferdinanda Ponci
Antonello Monti
author_facet Abhinav Sadu
Akshay Jindal
Gianluca Lipari
Ferdinanda Ponci
Antonello Monti
author_sort Abhinav Sadu
title Resilient design of distribution grid automation system against cyber-physical attacks using blockchain and smart contract
title_short Resilient design of distribution grid automation system against cyber-physical attacks using blockchain and smart contract
title_full Resilient design of distribution grid automation system against cyber-physical attacks using blockchain and smart contract
title_fullStr Resilient design of distribution grid automation system against cyber-physical attacks using blockchain and smart contract
title_full_unstemmed Resilient design of distribution grid automation system against cyber-physical attacks using blockchain and smart contract
title_sort resilient design of distribution grid automation system against cyber-physical attacks using blockchain and smart contract
publisher Elsevier
publishDate 2021
url https://doaj.org/article/6344460cd9ca4332bd370b514f413e52
work_keys_str_mv AT abhinavsadu resilientdesignofdistributiongridautomationsystemagainstcyberphysicalattacksusingblockchainandsmartcontract
AT akshayjindal resilientdesignofdistributiongridautomationsystemagainstcyberphysicalattacksusingblockchainandsmartcontract
AT gianlucalipari resilientdesignofdistributiongridautomationsystemagainstcyberphysicalattacksusingblockchainandsmartcontract
AT ferdinandaponci resilientdesignofdistributiongridautomationsystemagainstcyberphysicalattacksusingblockchainandsmartcontract
AT antonellomonti resilientdesignofdistributiongridautomationsystemagainstcyberphysicalattacksusingblockchainandsmartcontract
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