Research on the Impact and Solution Strategies of Blockchain Technology on Data Security and Transparency in Enterprise Digital Transformation

Research Article
Open access

Research on the Impact and Solution Strategies of Blockchain Technology on Data Security and Transparency in Enterprise Digital Transformation

Lifan Wang 1*
  • 1 Faculty of Social sciences and law, University of Bristol, Bristol, BS8 1QU, United Kindom    
  • *corresponding author uc22664@bristol.ac.uk
Published on 25 October 2024 | https://doi.org/10.54254/2754-1169/103/20242418
AEMPS Vol.103
ISSN (Print): 2754-1177
ISSN (Online): 2754-1169
ISBN (Print): 978-1-83558-531-3
ISBN (Online): 978-1-83558-532-0

Abstract

This research delves into the profound impact of blockchain technology on enhancing data security and transparency during enterprises’ digital transformation. By dissecting blockchain’s core attributes—decentralization, immutability, and advanced security—this study elucidates how it offers pragmatic solutions to prevalent challenges such as data breaches and opaque information processing. Leveraging an extensive literature review, meticulous case analysis, and expert insights, the article comprehensively illustrates blockchain’s diverse applications in ensuring data integrity and enhancing transparency across critical sectors, including financial services, supply chain management, and healthcare. Furthermore, the study identifies and deliberates on existing research gaps in blockchain technology’s application within digital transformation, proposing a systematic framework to deepen comprehension of its role in this process. Moreover, it conducts an in-depth analysis of the technical, operational, and environmental hurdles hindering blockchain adoption, offering a series of action strategies to enable enterprises to harness their potential effectively amidst the swiftly evolving digital landscape. Through this comprehensive inquiry, the article underscores the strategic significance of blockchain technology in augmenting corporate operational transparency and data security. Additionally, it elucidates how blockchain can bolster corporate governance, compliance, and stakeholder trust. Overall, this synthesis provides a thorough review and profound insights into research findings, underscoring blockchain’s pivotal role in addressing contemporary digital challenges while furnishing invaluable strategic guidance for industry innovation and advancement. The research outcomes hold substantial implications for practitioners and researchers, signaling the transformative potential of blockchain technology in reshaping enterprise operations and charting a course for future exploration in this pivotal domain.

Keywords:

Blockchain Technology, Data Security, Transparency, Digital Transformation, Implementation Challenges

Wang,L. (2024). Research on the Impact and Solution Strategies of Blockchain Technology on Data Security and Transparency in Enterprise Digital Transformation. Advances in Economics, Management and Political Sciences,103,156-164.
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1. Introduction

In the contemporary business landscape, where rapid technological advancements continually reshape market dynamics, enterprises must embrace digital transformation. This transformation is not just about adopting new technologies; it’s about reimagining business models, processes, and strategies to thrive in the digital age. Central to this transformation is the need to optimise internal processes and leverage data for informed decision-making. Yet, as enterprises navigate this digital shift, they encounter formidable challenges, notably in data security and transparency. In this complex scenario, blockchain technology emerges as a beacon of hope. With its core features of decentralisation, immutability, and enhanced security and transparency, blockchain stands out as a pivotal solution. It offers a robust framework for enterprises to safeguard their data and ensure transparency, facilitating a smoother and more secure digital transformation journey. The adoption of blockchain can significantly contribute to realising the full potential of digital transformation, making it a strategic imperative for enterprises aiming for competitive superiority [1].

1.1. Research Background

Integrating big data, cloud computing, AI, and other cutting-edge technologies has significantly fueled the acceleration of digital transformation. This rapid evolution, however, brings forth critical challenges, particularly in data security and privacy. The digital landscape is fraught with threats of data breaches, unauthorised access, and privacy violations, underlining the critical need for robust security measures. The Verizon 2022 Data Breach Investigations Report underscores this urgency, revealing a concerning number of data breaches among a staggering number of security incidents. Furthermore, the issue of data transparency cannot be sidelined. In an era where data drives decisions, the asymmetry and opacity of information can severely impede decision-making processes. Thus, the quest for technological solutions to enhance data security and transparency is a commercial endeavour and a societal imperative. With its distinctive attributes, blockchain technology presents an unparalleled opportunity to address these twin challenges, marking a pivotal shift in how enterprises approach data management in their digital transformation efforts [2].

1.2. Literature Review

The scholarly discourse on blockchain technology has been robust, focusing on its implications for data security and transparency across various sectors. Kshetri’s exploration in the “Journal of Business Research” highlights blockchain’s transformative potential for the Internet of Things (IoT), especially within financial services, emphasising enhanced security and transparency. Similarly, Saberi et al.’s analysis in the “International Journal of Production Economics” delves into blockchain’s role in rectifying information asymmetries within supply chain management, paving the way for more transparent operations. Mettler discusses blockchain’s capacity to revolutionise healthcare data management, offering a secure and transparent framework for data sharing. These studies collectively affirm the multifaceted value of blockchain technology, not just in bolstering data security and transparency but also in driving efficiency and trust in digital ecosystems [3].

Despite the extensive exploration of blockchain in various domains, a discernible gap exists in understanding its impact on data security and transparency within the broader context of enterprise digital transformation. Most scholarly endeavours have been siloed, focusing on blockchain’s application in specific industries or use cases. This piecemeal approach overlooks the holistic benefits and strategic implementations of blockchain technology across all facets of digital transformation. Therefore, there is a compelling need for a more integrative study that examines the role of blockchain in fortifying data security and enhancing transparency across the entire spectrum of enterprise digital activities [4].

1.3. Research Framework

This article aspires to bridge the identified research gap by proposing a systematic framework to assess blockchain’s role in enhancing data security and transparency in enterprise digital transformation. It will commence with an in-depth analysis of blockchain technology’s fundamentals, dissecting how its core characteristics can revolutionise data security and transparency. The discussion will then pivot to real-world applications, examining case studies where blockchain has been instrumental in enterprise digital transformation efforts. This section will shed light on best practices, challenges, and the tangible impact of blockchain implementation. Subsequently, the article will offer actionable strategies and recommendations for enterprises looking to harness blockchain technology effectively. The concluding segment will project into the future, speculating on the evolving role of blockchain in digital transformation and outlining potential research trajectories. This comprehensive framework aims to equip enterprises with the knowledge and tools to navigate the complexities of digital transformation, leveraging blockchain technology to secure and transparently manage data, thus fostering trust and efficiency in the digital age.

2. Case Description

As a critical driver of enterprise digital transformation, blockchain technology redefines how enterprises manage data, optimise processes, and enhance customer experience through its unique features - decentralisation, transparency, immutability, and security. This technology revolutionizes business processes, brings cost efficiencies, increases efficiency, and enhances trust between businesses.

Blockchain technology is essential for supply chain management to improve transparency and efficiency. It enables businesses to track the flow of goods in real time, reduce fraud, and ensure product authenticity and safety by creating an immutable and fully transparent record for each product from production to delivery. For example, the blockchain project collaborated by Walmart and IBM has successfully improved the traceability and transparency of the food supply chain, significantly reducing recall time and costs. Blockchain technology provides a new way of managing data securely and protecting privacy. Due to the distributed ledger nature of blockchain, once data is recorded, it is almost impossible to tamper with it, providing an additional layer of security for businesses storing sensitive information. In addition, using blockchain technology, enterprises can ensure data integrity and verifiability while safeguarding data privacy, which is critical to comply with increasingly stringent data protection regulations. In the financial sector, McKinsey highlights blockchain’s application in retail banking, such as in remittances and KYC/ID fraud prevention, where it offers substantial cost savings and operational efficiencies. Blockchain technologies have the potential to save billions in cross-border payments by increasing transparency and reducing transaction times. Moreover, blockchain-based solutions for KYC could save banks up to $1 billion in operating costs, demonstrating its vast potential to streamline financial services and combat fraud [5].

As another significant application of blockchain technology, smart contracts greatly simplify the transaction and contract execution process by automating the execution of contract terms. This reduces human error, transaction costs, and time, bringing greater efficiency and reliability to the business. For example, in the financial industry, smart contracts have been used to automate complex processes such as loan issuance and insurance claim processing, significantly increasing the speed and transparency of operations. Regarding authentication and authorisation, blockchain technology offers a more secure and efficient way to manage digital identities. By creating a decentralised, immutable identity database, enterprises can implement a more secure user authentication process and permission management to protect enterprise and customer data security. A notable example of blockchain in action is Walmart’s collaboration with IBM, utilising Hyperledger Fabric to create a food traceability system that dramatically improved supply chain transparency and efficiency. This system reduced the time to trace food product origins from days to seconds, demonstrating blockchain’s potential to enhance supply chain operations significantly [6].

Finally, in terms of financial management and payments, blockchain technology redefines how companies pay by providing a transparent and efficient transaction platform. Using blockchain technology, companies can reduce transaction costs, speed up payment processing, increase liquidity, and improve audit and compliance processes through real-time, transparent ledgers.

3. Analysis on the Problem

3.1. Influence Identified of Blockchain Technology on Enterprise Digital Transformation

3.1.1. Enhanced Data Security

Blockchain’s capability to enhance data security goes beyond its cryptographic foundations. The technology’s architecture inherently disperses data across multiple nodes, ensuring no single point of failure can compromise the system’s integrity. This distribution protects against data breaches and provides high availability and disaster recovery scenarios. Furthermore, consensus mechanisms for validating transactions add a layer of security, as malicious actors would need to control most of the network to alter data, which is practically infeasible for large, distributed networks. However, the security benefits of blockchain extend into specific applications, such as digital identities and secure transactions. For instance, blockchain can facilitate safe, tamper-proof systems for identity verification, significantly reducing the risk of identity theft and fraud. This application is particularly relevant in sectors like banking and finance, where identity verification and transaction security are paramount [7].

3.1.2. Increased Transparency in Operations

ncreased operational transparency with blockchain adoption can profoundly impact corporate governance and compliance. By providing an immutable ledger of transactions, blockchain enables companies to demonstrate compliance with regulatory requirements more efficiently and effectively. This is especially pertinent in industries with stringent finance, healthcare, and supply chain logistics regulations.

Moreover, blockchain can enhance customer trust by providing transparent access to the lifecycle of products, from manufacture to sale. This transparency is crucial for sectors where the provenance and authenticity of products are vital, such as the pharmaceutical industry, which tracks drug origins, or luxury goods and agriculture, where provenance can significantly impact product perceived value [8].

3.1.3. Challenges in Implementation and Scalability

The challenges in implementing blockchain technology are multifaceted. The initial cost and complexity of developing and integrating blockchain systems can be prohibitive for many enterprises. This is compounded by the need for ongoing maintenance and updates to ensure the blockchain system remains secure and functional within the rapidly evolving technological landscape. Scalability remains one of the most significant challenges for blockchain technology. The inherent design of many blockchain networks, which emphasises security and decentralisation, can limit transaction processing capacity and speed. This issue is a critical concern for enterprises that require the ability to process high volumes of transactions quickly and efficiently. While solutions such as layer two protocols and alternative consensus mechanisms (e.g., proof of stake) have been proposed to address scalability, these solutions often involve trade-offs in terms of decentralisation and security. Another notable challenge is the environmental impact of blockchain technologies, particularly those that rely on energy-intensive consensus mechanisms like proof of work. The growing concern over the carbon footprint of such blockchain networks has prompted a search for more sustainable alternatives, including adopting green energy sources and developing more energy-efficient consensus mechanisms [9].

In summary, while blockchain technology presents a transformative opportunity for enterprises undergoing digital transformation, the path to its adoption is fraught with technical, operational, and environmental challenges. Navigating these challenges requires a strategic approach, balancing the benefits of enhanced security and transparency against the complexities of implementation and scalability. Enterprises must remain agile and informed to leverage blockchain technology effectively in their digital transformation journeys.

3.2. Problem Identified

3.2.1. Technical Complexity and Skill Gaps

Adopting blockchain technology introduces a significant technical complexity that can be daunting for enterprises. This complexity is in understanding and integrating blockchain into IT infrastructures and business processes. Additionally, there is often a skill gap in the workforce, as blockchain is a relatively new technology, and there are limited numbers of professionals with the requisite knowledge and experience to implement and manage blockchain systems effectively. This shortage of skilled professionals can delay or hinder blockchain projects, impacting their success and the broader digital transformation objectives of the organisation. The blockchain sector is experiencing a pronounced skills gap, with a significant increase in demand for professionals possessing blockchain development skills. Despite the burgeoning interest in blockchain applications across various sectors, the supply of skilled professionals has yet to keep pace. Educational institutions and organisations are beginning to respond by offering more blockchain-focused courses and certifications to equip individuals with the technical and non-technical skills necessary for the industry. This dual approach to skill acquisition is crucial, as the sector requires engineers with deep technical knowledge and non-technical staff who understand blockchain applications within business contexts.

3.2.2. Scalability and Performance Limitations

Blockchain technology, particularly in its early implementations, faces challenges with scalability and performance. Many blockchain networks can handle only a limited number of transactions per second, leading to bottlenecks, especially for enterprises requiring high throughput. This limitation is a significant hurdle for adopting blockchain in sectors such as finance, e-commerce, and online services, where the ability to process a large volume of transactions quickly is crucial. Although solutions like layer two scaling and alternative consensus mechanisms are being explored, these are still in development or require trade-offs that may only be acceptable for some use cases.

3.2.3. Integration with Existing Systems

Integrating blockchain technology with existing enterprise systems poses another significant challenge. Many organisations operate on legacy systems that may need to be more readily compatible with blockchain. The effort and cost involved in modifying or replacing these systems can be substantial. Moreover, custom solutions are often needed to ensure seamless integration, which can increase the complexity and risk of blockchain projects. This difficulty in integration can act as a barrier to the effective use of blockchain technology, limiting its potential benefits for digital transformation efforts. These identified problems underscore the need for targeted strategies to address blockchain adoption’s technical and operational challenges. Solutions include investing in workforce development to build blockchain expertise, exploring and implementing scalable blockchain technologies, and developing middleware or APIs to facilitate easier blockchain integration with existing enterprise systems.

4. Suggestions

4.1. Comprehensive Measures to Effectively Address Technical Complexity and Skill Gaps

Targeting the technical complexities and talent skills gaps businesses face when adopting blockchain technology, companies can implement a detailed set of strategies to address these challenges. First, companies should invest in internal training programs to develop employees’ blockchain skills. These training programs can include multi-level courses from basic to advanced, such as customized workshops, practical technical courses in partnership with online education platforms, and certification courses in partnership with universities. This will not only help improve the skill levels of existing employees but also enhance employees’ sense of professional fulfillment and belonging to the company. Secondly, enterprises should establish strategic partnerships with higher education institutions to jointly develop and optimize blockchain-related educational courses. This collaboration can take many forms, such as funding blockchain labs, jointly conducting technical research, or providing internship opportunities for students so that they can apply their blockchain knowledge in natural business settings. This helps enterprises obtain well-trained professionals directly from the source and promotes the overall development of blockchain education.

In addition, considering the complexity of professionalism and implementation, enterprises can hire external blockchain experts or consultants. These experts can provide Blockchain technology’s potential to transform businesses, but it comes with significant technical complexities and talent skills gaps. To address these challenges, companies can take a multi-pronged approach.

First, internal training programs can be implemented to develop employees’ blockchain skills. These programs can include customized workshops, practical technical courses, and certification courses in partnership with universities. Investing in employees’ skills will improve their professional fulfillment and enhance the company’s overall effectiveness.

Secondly, enterprises can establish strategic partnerships with higher education institutions to jointly develop and optimize blockchain-related educational courses. This collaboration can take many forms, such as funding blockchain labs, jointly conducting technical research, or providing internship opportunities for students to apply their blockchain knowledge in natural business settings. This helps enterprises obtain well-trained professionals directly from the source and promotes the overall development of blockchain education.

Furthermore, considering the complexity of professionalism and implementation, enterprises can hire external blockchain experts or consultants to provide technical support for blockchain projects and help develop effective strategies and solutions in project design, system integration, and operation management.

Through these comprehensive measures, enterprises can effectively address the challenges of technical complexity and skill gaps and better utilize blockchain technology to promote business innovation and efficiency improvement. This multi-pronged strategy can accelerate enterprises’ digital transformation and give them an advantage in an increasingly competitive market environment. Technical support for blockchain projects and help enterprises develop effective strategies and solutions in project design, system integration, and operation management. Through these comprehensive measures, enterprises can effectively address the challenges of technical complexity and skill gaps and better utilize blockchain technology to promote business innovation and efficiency improvement. This multi-pronged strategy can not only accelerate enterprises’ digital transformation but also give them an advantage in an increasingly competitive market environment [10].

4.2. Multiple Strategies to Address Blockchain Scalability and Performance Limitations

Blockchain technology can potentially revolutionize transactions, but its scalability and performance limitations must be addressed. Fortunately, various strategies and techniques are available to overcome these challenges. By adopting second-layer scaling solutions, such as Lightning Network, sidechains, and state channels, transactions can be processed outside the blockchain, reducing the burden on the main chain. Utilizing alternative consensus mechanisms like Proof of Stake (PoS), Delegated Proof of Stake (DPoS), and Byzantine Fault Tolerance (BFT) can also reduce computational requirements and increase transaction processing speed. Sharding technology can significantly improve the overall network throughput while optimizing blockchain architecture, including data compression and improving blockchain encoding and data structures, which can reduce processing and storage requirements. Finally, cross-chain technology enhances the flexibility and efficiency of the overall network by allowing interoperability between multiple blockchain networks. Implementing these solutions can unlock the full potential of blockchain technology and enable widespread adoption while improving its performance. There are several ways to address scalability and performance challenges in blockchain technology. Firstly, second-layer scaling solutions such as Lightning Network, sidechains, and state channels can process transactions outside of the blockchain, reducing the workload on the main chain. Secondly, alternative consensus mechanisms like Proof of Stake (PoS), Delegated Proof of Stake (DPoS), and Byzantine Fault Tolerance (BFT) can reduce the computational requirements and increase the speed of transaction processing.

Additionally, sharding technology can improve the overall network throughput by breaking down data processing tasks into smaller parts and assigning them to sub-networks. Blockchain architecture can also be optimized, including data compression and improving blockchain encoding and data structures to reduce processing and storage requirements. Finally, cross-chain technology allows for interoperability between multiple blockchain networks, enhancing the flexibility and efficiency of the overall network. These solutions can be used to improve blockchain technology’s performance and overall application. A variety of strategies and techniques can be employed to address the limitations of blockchain technology in terms of scalability and performance [11].

4.3. Specific Strategies for Integrating Blockchain Technology with Existing Enterprise Systems

Specific strategies must be adopted to integrate blockchain technology seamlessly with existing enterprise systems. Firstly, developing middleware and APIs that can bridge the gap between different technology platforms will enable the transmission of data and commands. This can minimize disruption to existing architectures, such as creating APIs enabling ERP systems to access blockchain functions through a simple interface. Secondly, investing in blockchain technology training for employees will improve their technical understanding and operational skills. Regular seminars and courses can enhance their ability to support and maintain the integrated system. Lastly, exploring and adopting scalable blockchain technology can meet the needs of different application scenarios and scales, enhancing the flexibility and scalability of the system. By implementing these measures this can reduce the complexity and risks of technology integration and fully realize the potential of blockchain in enterprise digital transformation [12].

5. Conclusion

5.1. Key Findings

This research delved deeply into the transformative impact of blockchain technology on data security and transparency within digitally transforming enterprises. Our findings highlighted three vital insights. Firstly, blockchain’s decentralized architecture and cryptographic layers serve as a robust shield against cyber threats, ensuring data security in today’s digital economy. Secondly, the technology’s capacity to create an immutable and transparent ledger for all transactions promotes transparency, enabling regulatory compliance and fostering trust among stakeholders. Thirdly, while blockchain’s potential is enormous, enterprises must address technical and scalability challenges to reap its full benefits. Our recommendations include adopting scalable solutions, enhancing technical skills, and keeping up with the latest blockchain innovations.

5.2. Research Significance

The research that has just been shared with you substantiates blockchain technology’s immense business value. It has the power to act as a keystone in the digital transformation of enterprises by bolstering data security and transparency. This is beneficial for individual companies and can revolutionize entire industries by fostering a more secure and transparent digital ecosystem. Industries such as financial services, healthcare, and supply chain management can leverage blockchain to navigate the complexities of compliance, data integrity, and customer trust. Our research amplifies the argument that blockchain is necessary for tackling contemporary digital challenges, thereby underlining its strategic importance to business innovation and industry advancement. It is high time that businesses realize the potential of blockchain technology and embrace it to stay ahead in the game. The benefits of blockchain are immense, and the implications of our findings are far-reaching. It is time to step up and harness the transformative power of blockchain to propel businesses and industries forward. So, let us join hands and make blockchain a reality for the betterment of all.

5.3. Limitations and Future Studies

This research provides a thorough examination of the advantages of blockchain technology. However, it is essential to note that our observations are primarily based on secondary data. As a result, we may still need to catch up on some of the immediate challenges and emerging innovations in the blockchain landscape. Future research should focus on incorporating primary data through surveys and interviews with industry experts and blockchain implementers to gain a more comprehensive understanding. This will help to identify practical barriers and enable the development of targeted strategies for blockchain integration. Additionally, given the environmental concerns certain blockchain implementations raise, future studies must explore the development of sustainable blockchain solutions. This will ensure that the adoption of this technology is in line with global sustainability goals.


References

[1]. Global. (n.d.). 2024 Unveiled: The Transformative Year of Enterprise Blockchain - A Journey Through Emerging Trends and Strategic Insights, 2024.2.24, 2024.4.16, https://corporate-blog.global.fujitsu.com/fgb/2024-01-24/01/

[2]. CyStack. (2023). Blockchain in Digital Transformation: The Technology of Future. 2023.3.24, 2024.4.16, https://cystack.net/blog/blockchain-in-digital-transformation

[3]. Hyperledger, T. (2019). How Walmart brought unprecedented transparency to the food supply chain with Hyperledger Fabric. Hyperledger_CaseStudy_Walmart_Printable_V4. pdf.

[4]. Higginson, M., Hilal, A., & Yugac, E. (2019). Blockchain and retail banking: Making the connection. McKinsey & Company.

[5]. Hazlegreaves, S. (2019). Closing the blockchain skills gap. Open Access Government. 2019.8.20, 2024.4.16, https://www.openaccessgovernment.org/blockchain-skills-gap/71933/

[6]. Kaal, W., Vermeulen, E., & Fenwick, M. (2018). Why blockchain will disrupt corporate organizations: What can be learned from the “digital transformation”. The Journal of the British Blockchain Association, 1(2).

[7]. Mearian, L. (2020). How blockchain plays into digital transformation. IDC. com. https://tinyurl. com/vh7fufns.

[8]. Idrees, S., & Nowostawski, M. (2022). Transformations through blockchain technology. Germany: Berlin/Heidelberg.

[9]. Massaro, M. (2023). Digital transformation in the healthcare sector through blockchain technology. Insights from academic research and business developments. Technovation, 120, 102386.

[10]. Saleh, O. S., Ghazali, O., & Rana, M. E. (2020). Blockchain based framework for educational certificates verification. Journal of critical reviews.

[11]. Rathod, T., Jadav, N. K., Alshehri, M. D., Tanwar, S., Sharma, R., Felseghi, R. A., & Raboaca, M. S. (2022). Blockchain for future wireless networks: A decade survey. Sensors, 22(11), 4182.

[12]. Kolehmainen, T., Laatikainen, G., Kultanen, J., Kazan, E., & Abrahamsson, P. (2020, November). Using blockchain in digitalizing enterprise legacy systems: An experience report. In International Conference on Software Business (pp. 70-85). Cham: Springer International Publishing.


Cite this article

Wang,L. (2024). Research on the Impact and Solution Strategies of Blockchain Technology on Data Security and Transparency in Enterprise Digital Transformation. Advances in Economics, Management and Political Sciences,103,156-164.

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Volume title: Proceedings of the 8th International Conference on Economic Management and Green Development

ISBN:978-1-83558-531-3(Print) / 978-1-83558-532-0(Online)
Editor:Lukáš Vartiak, Xinzhong Bao
Conference website: https://2024.icemgd.org/
Conference date: 26 September 2024
Series: Advances in Economics, Management and Political Sciences
Volume number: Vol.103
ISSN:2754-1169(Print) / 2754-1177(Online)

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References

[1]. Global. (n.d.). 2024 Unveiled: The Transformative Year of Enterprise Blockchain - A Journey Through Emerging Trends and Strategic Insights, 2024.2.24, 2024.4.16, https://corporate-blog.global.fujitsu.com/fgb/2024-01-24/01/

[2]. CyStack. (2023). Blockchain in Digital Transformation: The Technology of Future. 2023.3.24, 2024.4.16, https://cystack.net/blog/blockchain-in-digital-transformation

[3]. Hyperledger, T. (2019). How Walmart brought unprecedented transparency to the food supply chain with Hyperledger Fabric. Hyperledger_CaseStudy_Walmart_Printable_V4. pdf.

[4]. Higginson, M., Hilal, A., & Yugac, E. (2019). Blockchain and retail banking: Making the connection. McKinsey & Company.

[5]. Hazlegreaves, S. (2019). Closing the blockchain skills gap. Open Access Government. 2019.8.20, 2024.4.16, https://www.openaccessgovernment.org/blockchain-skills-gap/71933/

[6]. Kaal, W., Vermeulen, E., & Fenwick, M. (2018). Why blockchain will disrupt corporate organizations: What can be learned from the “digital transformation”. The Journal of the British Blockchain Association, 1(2).

[7]. Mearian, L. (2020). How blockchain plays into digital transformation. IDC. com. https://tinyurl. com/vh7fufns.

[8]. Idrees, S., & Nowostawski, M. (2022). Transformations through blockchain technology. Germany: Berlin/Heidelberg.

[9]. Massaro, M. (2023). Digital transformation in the healthcare sector through blockchain technology. Insights from academic research and business developments. Technovation, 120, 102386.

[10]. Saleh, O. S., Ghazali, O., & Rana, M. E. (2020). Blockchain based framework for educational certificates verification. Journal of critical reviews.

[11]. Rathod, T., Jadav, N. K., Alshehri, M. D., Tanwar, S., Sharma, R., Felseghi, R. A., & Raboaca, M. S. (2022). Blockchain for future wireless networks: A decade survey. Sensors, 22(11), 4182.

[12]. Kolehmainen, T., Laatikainen, G., Kultanen, J., Kazan, E., & Abrahamsson, P. (2020, November). Using blockchain in digitalizing enterprise legacy systems: An experience report. In International Conference on Software Business (pp. 70-85). Cham: Springer International Publishing.