Blockchain-Based Land Registration for Trusted Property Records: System Design and Functional Validation in Nigeria

Land registration depends on reliable records, verifiable ownership histories, accountable administrative decisions, and legally recognized procedures for creating and transferring property rights. Paper-centred processes can make record search slow and expose registries to risks associated with document loss, unauthorized alteration, fragmented information, and competing claims. Blockchain technology offers a possible technical layer for maintaining tamper-evident transaction histories, while smart contracts can encode selected procedural rules. This paper presents the design and reported functional validation of a blockchain-based land registration system developed for the Ebonyi State, Nigeria, context. The project adopts a permissioned Ethereum architecture, Solidity smart contracts, and a hybrid data model that combines on-chain transaction references with off-chain application and land-record data. A Node.js/Express service layer and React interface are described as the application components. The development process follows a Waterfall system-development life cycle, informed by observation, interviews, examination of records, and questionnaires described in the project report. The documented functional tests cover authentication, title issuance, ownership transfer, duplicate-title detection, payment processing, and dispute filing. All six cases are reported as passing; the payment case records a two-minute completion time for a stated ₦8,000,000 transaction. These results provide preliminary evidence of functional workflow coverage, but they do not establish statewide operational effectiveness, statistically significant processing-time improvement, resistance to adversarial attacks, or legal validity of blockchain records as conclusive proof of title. The paper’s contribution is a locally contextualized system architecture and an evidence-conscious functional evaluation that identifies both the value and the limits of blockchain-supported land administration. It concludes that blockchain can strengthen auditability only when combined with authoritative source-data validation, accountable registry governance, privacy controls, security testing, institutional adoption, and a clear legal framework.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-30
DOI
https://doi.org/10.5281/zenodo.23799410
Primary Topic
Blockchain Technology Applications and Security
Type
article
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article

Blockchain-Based Land Registration for Trusted Property Records: System Design and Functional Validation in Nigeria

Augustine Chidiebere Onuora, Taiwo Adisa Oyeniran, George Elechi Christopher
3 links
Zenodo (CERN European Organization for Nuclear Research)
Blockchain Technology Applications and Security
article

Blockchain-Based Land Registration for Trusted Property Records: System Design and Functional Validation in Nigeria

Augustine Chidiebere Onuora, Taiwo Adisa Oyeniran, George Elechi Christopher
article en

Abstract

Land registration depends on reliable records, verifiable ownership histories, accountable administrative decisions, and legally recognized procedures for creating and transferring property rights. Paper-centred processes can make record search slow and expose registries to risks associated with document loss, unauthorized alteration, fragmented information, and competing claims. Blockchain technology offers a possible technical layer for maintaining tamper-evident transaction histories, while smart contracts can encode selected procedural rules. This paper presents the design and reported functional validation of a blockchain-based land registration system developed for the Ebonyi State, Nigeria, context. The project adopts a permissioned Ethereum architecture, Solidity smart contracts, and a hybrid data model that combines on-chain transaction references with off-chain application and land-record data. A Node.js/Express service layer and React interface are described as the application components. The development process follows a Waterfall system-development life cycle, informed by observation, interviews, examination of records, and questionnaires described in the project report. The documented functional tests cover authentication, title issuance, ownership transfer, duplicate-title detection, payment processing, and dispute filing. All six cases are reported as passing; the payment case records a two-minute completion time for a stated ₦8,000,000 transaction. These results provide preliminary evidence of functional workflow coverage, but they do not establish statewide operational effectiveness, statistically significant processing-time improvement, resistance to adversarial attacks, or legal validity of blockchain records as conclusive proof of title. The paper’s contribution is a locally contextualized system architecture and an evidence-conscious functional evaluation that identifies both the value and the limits of blockchain-supported land administration. It concludes that blockchain can strengthen auditability only when combined with authoritative source-data validation, accountable registry governance, privacy controls, security testing, institutional adoption, and a clear legal framework.

Zenodo (CERN European Organization for Nuclear Research)
Akanu Ibiam, Federal Polytechnic Unwana (NG)
Peace, justice, and strong institutions, Industry, innovation and infrastructure
Openalex Percentile: Top 6%
Blockchain Technology Applications and Security
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