Success Factors of the Blockchain Adoption for Smart Manufacture

Exploring Critical Success Factors for Blockchain-based Intelligent Transportation Systems

“…Each transaction is verified by a group of nodes maintained by the majority of the participants in the system [5,12]. Blockchain has a revolutionary effect not only on the finance sector with cryptocurrency and decentralized authority but also on other sectors as manufacturing, healthcare, or supply chain management, owing to new ways of more secure and transparent transactions [5,[13][14][15]. The benefits of blockchain technology can be described as distributed consensus, anonymity [12], transparency, accountability, interoperability, financial effectiveness, collaboration, agility [5], privacy, security, and scalability [15].…”

“…Functional Appropriateness [25] Functional Completeness [25] Functional Correctness [25] Performance Efficiency Resource Utilization [15,25] Time Behavior [15,25] Compatibility Interoperability [25][26][27][28] Co-existence [25,26,29] Usability Accessibility [15,25,[30][31][32][33][34][35] User interface aesthetics [25] Learnability [25] Reliability Maturity [25] Fault tolerance [25,36,37] Recoverability [25] Availability [14,25] Security & Privacy Authorization [6,25,32,33,38,39] Audit [25] Protection [6,25,32,33,38,39] Multi-location issues [25] Maintainability Replicability [25,40] Stability [25,…”

“…Financial Feasibility, also known as economic performance, covers productivity, profitability, revenues, and costs of blockchain-based ITS initiatives [47]. It is determined that the success factor of financial feasibility or economic performance was defined in almost all primary studies [10,[13][14][15]26,[48][49][50][51][52]. Blockchain-based ITS should have a feasible return on investment and short payback timeline for success, as every other innovation project.…”

Untangling the critical success factors for blockchain adoption in supply chain: a social network analysis

“…The first CSF in this theme is Data security, which covers the risk management practices to make it impossible to hack the system and lose the data stored in the Blockchain (Shoaib et al, 2020). These practices also concern the establishment by the SC actors of authorizations for secure access (Liu & Li, 2019) and decentralized and self-sovereign control of data (Prasad et al, 2018) within a trustless and permissioned system (Surjandy et al, 2018). Second, Data integrity includes the practices implemented among the stakeholders to ensure the authenticity, credibility, immutability (Dutta et al, 2020;, and quality fairness (Shoaib et al, 2020) of the data in order to make it free from bias and human error.…”

“…Blockchain interoperability is also a frequently cited CSF in SC contexts. This technology should rely on standards to enable its real time integration and coexistence with the stakeholders' IT and legacy systems (Pautasso et al, 2020), with other cloud and trusted IoT services (Prasad et al, 2018;Surjandy et al, 2018) and between Blockchains (Wang et al, 2019). Moreover, the used Blockchain should be highly scalable with a miner incentive (Prasad et al, 2018) and a modular structure that can be extended in the long-term (Shoaib et al, 2020) with developed sidechains , and can ©2022, Revue Française de Gestion Industrielle, Vol.…”