Aug 2026· International Journal of innovative inventions in Social Science and Humanities· Vol 03· 0 citations
TL;DR
It is argued that blockchain automates a narrow and historically labor-intensive slice of the audit, namely the verification of the existence, occurrence, and mathematical accuracy of recorded transactions, while leaving untouched the components of assurance that depend on professional judgment.
Abstract
Blockchain technology records transactions on a distributed ledger that is cryptographically chained, replicated across independent nodes, and validated by consensus rather than by any single institution. Because the technology verifies that recorded transactions occurred and have not been altered, some commentators have concluded that it will make external auditors redundant. This article rejects that conclusion but takes the underlying disruption seriously. It argues that blockchain automates a narrow and historically labor-intensive slice of the audit, namely the verification of the existence, occurrence, and mathematical accuracy of recorded transactions, while leaving untouched the components of assurance that depend on professional judgment: valuation, accounting estimates, classification, completeness of off-chain events, related party identification, and going concern assessment. At the same time, the technology creates new objects that require assurance, including consensus protocols, cryptographic key management, smart contract code, and the oracles that connect ledgers to the physical world. The article examines the consequences for auditing standards, particularly the treatment of blockchain records as audit evidence, and for the education, skills, and business model of the profession. The external auditor’s future role, it concludes, lies not in verifying transactions but in assuring the systems that now verify them, and in exercising the judgment that no ledger can encode.
This article proposes a methodology for issuing academic micro-credentials that remain verifiable after the issuing institution ceases to exist. Existing blockchain credentialing systems still require HTTP calls to the issuer's infrastructure during verification, which fails when the institution closes. We anchor issuer identity in did:blox on the Bloxberg consortium blockchain. Only the credential hash and the issuer's Decentralized Identifiers are stored on-chain, while the Verifiable Credential remains in the holder's wallet. Verification resolves directly from the blockchain, with no dependence on the issuer. The methodology is designed for institutions to adopt through application programming interface (API) integration with existing systems.
We define three design goals: issuer-independent verification, general data protection regulation (GDPR) compliance and open standards alignment. From these we derive three architectural decisions: a consortium blockchain (Bloxberg) suited to institutional deployment, a chain-anchored DID method (did:blox) that removes HTTP dependency from verification, and a hybrid on-chain/off-chain storage model that keeps personal data in the holder's wallet.
Verification is independent of the issuer. The verifier resolves the issuer's identity through did:blox on Bloxberg, without any HTTP call to the issuer's domain. GDPR compliance is achieved by keeping all personal data off-chain in the holder's wallet. The architecture complies with W3C Verifiable Credentials Data Model v2.0, making credentials portable across any compliant verifier.
Revocation still depends on the issuer's ability to sign new transactions, which can fail if the institution loses its signing key. The architecture is bound to a single consortium blockchain. Consortium dissolution would require migration of the trusted issuers registry. Handling of DID deactivation is unresolved in current W3C specifications (Mazzocca et al., 2025). These limitations open three research directions: formal protocols for DID deactivation and historical key attestation, multi-signature or escrowed revocation models, and cross-chain interoperability mechanisms (Deng et al., 2025) to mitigate single-consortium risk.
For educational institutions, the adoption barrier is low. The institution does not operate a blockchain node, host the credential infrastructure, or learn blockchain-specific protocols. Adoption requires only key management and an API integration with the existing Student Information System. For employers and other verifiers, credential verification is reduced from postal correspondence with registrars or third-party transcript services to a quick response (QR) code scan and a cryptographic check in seconds. No intermediary is trusted. The trust comes from the consortium-governed registry on Bloxberg and from the cryptographic properties of the credential itself.
Students gain ownership of their academic credentials. The Verifiable Credential lives in the holder's wallet under their control, and survives institutional changes, mergers or closures that would otherwise invalidate the verifiability of centrally hosted credentials. Cross-border recognition becomes feasible without bilateral institutional agreements, because any W3C VC-compatible verifier can validate the credential. The architecture reduces credential fraud, since each credential is cryptographically tied to an issuer DID on a public ledger. It also lowers the institutional and verifier costs of credentialing.
Issuer-independent verification (through did:blox chain resolution rather than HTTP), GDPR-compliant hybrid storage, full W3C Verifiable Credentials and DID compliance, and predictable institutional costs through the Bloxberg consortium model. Institutions integrate through an authenticated API to an existing issuance backend, without operating their own blockchain infrastructure.
Martin Zaklasnik, Andrej Gono, R. Farana et al.· The international journal of...· 0 citations
This study examines the technological, financial, and regulatory obstacles of blockchain-based food traceability and proposes a new architecture called the Dynamic Trust-Weighted Oracle Consensus (DTW-OC) framework, which introduces a reputation-weighted, cross-validated oracle layer that scores every IoT sensor and human data source in real time and feeds that score into block-validator selection.
Shikha Singh· Journal of Intelligent Decis...· 0 citations
: In recent years, the exponential rise of digital banking and online financial services often grows, the demand for secure and transparent and tamper-proof transaction systems. This paper proposes a blockchain based framework, called "Fortifying Financial Transactions with Blockchain", which aims at improving the integrity and reliability of financial operations as decentralised verification and smart contracts. The whole system utilizes smart contracts coded in Solidity enforced on a local blockchain (Ganache) to capture and to authenticate each interaction about the flow of the value between user wallets integrated using an extension called MetaMask. By using the hashing algorithm SHA-3 (keccak256) for the integrity of the exchanged data, and the transaction of data is approved by business logic on the blockchain, so it should be impossible to falsify the exchanged data to ensure immutability of the data exchanged between counterparties. In addition, an off-chain Node.js backend enables writing the block to an internal audit log, indexing, and the ability to resolve administrative disputes through compensating transactions, and a frontend built on React can give a real time view of transactions that are still pending and pending confirmations. Experimental results on the local blockchain show that the proposed approach improves the transaction traceability and auditability to a large extent, under a reasonable condition on economical consumption of gas and lesser value of transaction execution time. The system thus provides a secure, auditable and scalable model that could be used for next generation digital banking environments.
R. Midhuna, J. Biju· Proceedings of the 1st Inter...· 0 citations
The study argues that technical deployment must be accompanied by rules on personal-data protection, legal recognition, node governance, node governance, and measurable pilot-testing criteria, and illustrates differences between centralized and blockchain-based models in terms of integrity assurance, verification time, dependence on a central server, and transaction costs.
Ilyos Shaydullayev, Sherzod Samarov· Raqamli huquq va innovatsiya...· 0 citations
Blockchain technology has emerged as a powerful solution for improving the security, transparency, and efficiency of financial transactions. Unlike traditional financial systems that depend on centralized intermediaries, blockchain uses decentralized distributed ledgers, cryptographic security, consensus mechanisms, and immutable records to ensure trust and data integrity. This study examines the role of blockchain in securing financial transactions and explores its core components, including distributed ledgers, cryptographic hashing, consensus protocols, smart contracts, and decentralized networks. The research analyzes how blockchain mitigates security threats such as fraud, double spending, identity theft, unauthorized access, and transaction tampering. It also investigates applications in digital payments, cross-border remittances, banking, trade finance, cryptocurrencies, and decentralized finance (DeFi). A blockchain-enabled financial transaction framework is proposed and evaluated using metrics such as security, transparency, scalability, efficiency, and fraud prevention. The findings indicate that blockchain significantly enhances transaction security and transparency while reducing costs and processing times. Although challenges such as scalability, regulatory issues, interoperability, and energy consumption remain, blockchain demonstrates strong potential to transform modern financial systems and support the development of secure, efficient, and decentralized financial ecosystems.
Kenji Sato, Aiko Yamamoto· International Journal of Com...· 2 citations
This article examines how the adoption of blockchain technology influences audit efficiency and fraud detection within modern accounting practice. As financial transactions increasingly move into distributed ledger environments, external auditors are compelled to revisit the assumptions, procedures, and tools that underpin traditional assurance work. Through a systematic review of contemporary auditing, accounting information systems, and financial technology literature, this study identifies the mechanisms through which blockchain reshapes the audit process. The findings indicate that blockchain adoption enhances efficiency primarily by enabling real-time access to immutable transaction records, reducing reliance on sampling-based procedures, automating control testing through smart contracts, and facilitating continuous auditing. At the same time, the technology strengthens fraud detection capacity by improving the traceability of transactions, increasing the difficulty of retroactive manipulation, and supporting forensic analysis of anomalous patterns. However, the realization of these benefits is conditional on several factors, including auditor competence, integration with legacy systems, regulatory clarity, data privacy constraints, and the risk that fraud shifts to points where the blockchain boundary intersects with off-chain processes. The review concludes that blockchain does not eliminate the need for professional skepticism; rather, it redefines the focus of auditor judgment from verifying recorded transactions to evaluating the reliability of the underlying technology environment and its governance. Practical implications for audit firms, standard-setting bodies, and regulators are discussed.
H. Nurhadi, Mahdi Mahdi, Irdawati Irdawati et al.· LANCAH: Jurnal Inovasi dan T...· 0 citations
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