@mastersThesis{SchifflMSc2018, author = {Jonas Schiffl}, title = {Specification and Verification of Hyperledger Fabric Chaincode}, school = {Karlsruhe Institute of Technology}, month = dec, year = {2018}, language = {english}, abstract = {Smart contracts are programs that work on top of distributed ledgers. They regulate access to the ledger and define the assets that are managed in a blockchain network. Due to the nature of blockchain networks, smart contracts can be read by all agents on the network, and they cannot usually be changed after deployment. This makes programming errors in smart contracts highly severe and necessitates the use of formal methods: Smart contracts must be formally specified to establish consensus about their intended behavior, and adherence to the specification must be proven. In this work, we present an approach to specification and verification of smart contracts for Hyperledger Fabric, a platform for operating private, permissionless smart contract networks. We use the KeY tool for formal verification, and extend the tool to allow reasoning about serialization and persistent storage. The feasibility of our approach is demonstrated in a case study.}, location = {Karlsruhe, Germany} }
Specification and Verification of Hyperledger Fabric Chaincode
Autor(en): | Jonas Schiffl |
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Hochschule: | Karlsruhe Institute of Technology |
Jahr: | 2018 |
Abstract
Smart contracts are programs that work on top of distributed ledgers. They regulate access to the ledger and define the assets that are managed in a blockchain network. Due to the nature of blockchain networks, smart contracts can be read by all agents on the network, and they cannot usually be changed after deployment. This makes programming errors in smart contracts highly severe and necessitates the use of formal methods: Smart contracts must be formally specified to establish consensus about their intended behavior, and adherence to the specification must be proven. In this work, we present an approach to specification and verification of smart contracts for Hyperledger Fabric, a platform for operating private, permissionless smart contract networks. We use the KeY tool for formal verification, and extend the tool to allow reasoning about serialization and persistent storage. The feasibility of our approach is demonstrated in a case study.