Blockchain-based certification and smart contract traceability system for research achievement transformation

The growing demand for verifiable and tamper-resistant academic achievements highlights critical limitations in traditional research credentialing systems, particularly in areas of data integrity, privacy, and traceability. Research proposes a blockchain-based certification and smart contract traceability framework that transforms research outputs such as publications, datasets, and intellectual property into immutable and auditable digital credentials. The system incorporates an encryption architecture known as the Secure Dual-Layer Advanced Triple Cryptographic Shield System (SDL-ATCSS), which combines dual-layer hybrid cryptography with a triple-stage obfuscation mechanism. To ensure data integrity and tamper resistance, the framework utilizes the SHA-256 hashing algorithm, generating cryptographic hashes of each encrypted artifact before committing it to the blockchain. The framework leverages the Ethereum blockchain and smart contracts to manage access control, version tracking, and automated certification workflows. Each research artifact is encrypted using SDL-ATCSS, hashed with SHA-256, and recorded on-chain with a timestamp and a digital signature. A randomized threshold voting protocol, supported by off-chain verification scripts, enables decentralized validation of each certification request and enforces integrity through deposit-based incentive and penalty mechanisms. A case study on academic publication certification demonstrates the practical application of the system. Research simulates the lifecycle of a research article from submission to peer review and publication, with each stage immutably recorded and verified on the blockchain. Results show that the system maintains low certification latency, strong Hash Verification, validator participation rate, tamper detection rate, lifecycle coverage, and high IPFS Pointer Validity, all of which are above 97%. Research establishes a secure, scalable, and decentralized framework for the transformation of research achievements into verifiable digital credentials, offering a transparent alternative to traditional academic validation systems.

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Publication Details

Journal
Journal of Computational Methods in Sciences and Engineering
Published
2025-10-17
DOI
https://doi.org/10.1177/14727978251385157
Primary Topic
Blockchain Technology Applications and Security
Type
article
Field-Weighted Citation Impact
0.00
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article

Blockchain-based certification and smart contract traceability system for research achievement transformation

Hyukku Lee, Wei Wang, Feng Zhang, Zhiguo Wang et al.
Journal of Computational Methods in Sciences and Engineering
Blockchain Technology Applications and Security
article

Blockchain-based certification and smart contract traceability system for research achievement transformation

Hyukku Lee, Wei Wang, Feng Zhang, Zhiguo Wang, Chao Sun, Tiejun Liu, Yangwei Zhang
article en

Abstract

The growing demand for verifiable and tamper-resistant academic achievements highlights critical limitations in traditional research credentialing systems, particularly in areas of data integrity, privacy, and traceability. Research proposes a blockchain-based certification and smart contract traceability framework that transforms research outputs such as publications, datasets, and intellectual property into immutable and auditable digital credentials. The system incorporates an encryption architecture known as the Secure Dual-Layer Advanced Triple Cryptographic Shield System (SDL-ATCSS), which combines dual-layer hybrid cryptography with a triple-stage obfuscation mechanism. To ensure data integrity and tamper resistance, the framework utilizes the SHA-256 hashing algorithm, generating cryptographic hashes of each encrypted artifact before committing it to the blockchain. The framework leverages the Ethereum blockchain and smart contracts to manage access control, version tracking, and automated certification workflows. Each research artifact is encrypted using SDL-ATCSS, hashed with SHA-256, and recorded on-chain with a timestamp and a digital signature. A randomized threshold voting protocol, supported by off-chain verification scripts, enables decentralized validation of each certification request and enforces integrity through deposit-based incentive and penalty mechanisms. A case study on academic publication certification demonstrates the practical application of the system. Research simulates the lifecycle of a research article from submission to peer review and publication, with each stage immutably recorded and verified on the blockchain. Results show that the system maintains low certification latency, strong Hash Verification, validator participation rate, tamper detection rate, lifecycle coverage, and high IPFS Pointer Validity, all of which are above 97%. Research establishes a secure, scalable, and decentralized framework for the transformation of research achievements into verifiable digital credentials, offering a transparent alternative to traditional academic validation systems.

Journal of Computational Methods in Sciences and Engineering
Suihua University (CN), East Asia Institute (KR)
Openalex Percentile: Top 57%
Blockchain Technology Applications and Security
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