A Compact Review on Integration of Blockchain Technology into Robotic Network

Real-time applications always have security issues present in their ecosystem which needs to be improved. Blockchain technology can be considered as a solution that can ensure network security. The integration of blockchain technology into autonomous systems has now become an important candidate to resolve network security issues in devices that work on p2p communications. As humans become more reliant on autonomous vehicles, the importance of finding a solution to the problems linked with data security needs to be addressed to comply with international security laws. The paper aims to find the importance of blockchain technology and how it can be integrated into different classes of autonomous vehicles. In the research, an analysis of existing papers will be included along with a proposed design that can be deployed to solve the problems associated with data security using blockchain technology. Besides the improvements offered by blockchain technology, all the additional challenges associated with designing a new system and deploying this technology will be reviewed. The limitations of the works along with the future research opportunities that might open up will be presented in this paper.

The rapid advancement of the Internet of Things (IoT) is reshaping industries by enabling seamless communication between devices, real-time data collection, and automation. Given the surge in IoT applications, challenges related to security, scalability, and interoperability have become increasingly critical. This study presents a state-of-the-art software engineering framework designed to address these limitations through the integration of blockchain technology and smart contracts. By leveraging the decentralized, immutable, and transparent nature of blockchain, the proposed framework enhances trust and security within IoT environments. Smart contracts, as secure, self-executing code, facilitate autonomous interactions between IoT devices without relying on centralized control. Additionally, the framework introduces novel strategies for optimizing resource management and data handling efficiency while improving system scalability across distributed networks. The synergistic use of blockchain and smart contracts not only resolves key IoT challenges but also contributes to the development of robust, efficient, and scalable IoT ecosystems. The framework is applicable across diverse domains, including healthcare, smart cities, supply chain management, and industrial automation, fostering innovative, self-governing IoT systems throughout their operational lifecycle.

Cloud computing has revolutionized the banking industry by offering flexible and flexible products for the delivery of electronic banking services. However, due to the sensitivity of the central authority, ensuring the security of online transaction is still a critical issue. In this context, blockchain technology is promising by offering decentralization, transferability and cryptographic security. This article presents a new way to increase the security of electronic banking payments by combining blockchain technology with cloud computing. The system plans to use the cloud to host business applications and services, and use blockchain to securely record and verify transactions. Smart contracts are used to streamline the payment process and manage transactions, providing transparency and trust. Additionally, encryption technology is used to encrypt sensitive information and protect the user's identity. Using this solution provides many benefits, including improving the security, transparency and efficiency of electronic banking. Research articles and experimental results demonstrate the effectiveness and applicability of the proposed process in real life. Overall, the integration of blockchain technology with cloud banking provides a solution to solve security issues and increase the reliability of online payments.

Based on the methods discussed, a framework for integrating blockchain technology into networking protocols was created in this study. Some of the difficulties that conventional networking protocols face when integrating blockchain technology into communication networks are covered in this paper. This paper also provides case studies and examples to provide a clearer picture of how blockchain technology might be utilised to enhance security, privacy, and decentralisation in networking protocols. Based on the open and unchangeable nature of blockchain technology, this article offered suggestions for communication networks to achieve higher levels of integrity and trust while lowering any dangers related to centralised control and single points of failure. Furthermore, the study looks at advanced security feature which is SHA-256 cryptographic hashing to show how blockchain can maintain data integrity and guard against malicious attacks.

The purpose of this study was to explore the potential of integrating blockchain technologies into the agricultural sector of Azerbaijan to increase transparency, traceability, and automation of processes, and to build confidence in products in domestic and international markets. The paper included an analysis of the international experience of countries such as the USA, China, the Netherlands, and Australia, which allowed assessing the benefits of blockchain and the impact on key aspects of agriculture. The focus was on transparency and quality control at all stages of the supply chain, automation of financial settlements between market participants, and the economic benefits of using smart contracts. The results of the study showed that blockchain can radically improve the transparency of supply chains. Based on the technology, it is possible to record and track every stage of product movement from the manufacturer to the end user, which enables quality control and quick identification of problems. This is especially important in Azerbaijan, as the country is striving to strengthen its export potential, and consumers in international markets place high demands on transparency and safety of agricultural products. The study also showed that blockchain can automate financial calculations using smart contracts, which simplifies transactions between farmers and suppliers. This leads to lower transaction costs, eliminating the need for intermediaries, and improving the liquidity of agricultural enterprises, especially small farmers. This approach solves a number of financial problems faced by farmers, including delayed payments and limited access to capital. The findings emphasised that, despite the existing obstacles, blockchain can become an important tool for increasing the competitiveness of Azerbaijan's agricultural sector. For successful implementation, it is necessary to attract government support, training programmes and financial assistance for the adaptation and dissemination of technology among farmers. Thus, the integration of blockchain can provide economic and operational advantages that will help to improve the quality, transparency, and credibility of Azerbaijani agricultural products

This paper explores the potential impact of blockchain technology on the productivity of Chile’s copper mining industry. Amid rising global demand for copper and declining mining productivity, Chile faces challenges which include complex contractor management and administrative inefficiencies. We review the recent trends in mining productivity and blockchain technology and conduct a preliminary survey to assess the status of blockchain adoption in Chile’s mining industry. The study also explored the impact of smart contracts in Chile’s mining sector by analyzing contracts information of a large mining company in Chile. Our results suggest that high-impact projects in Chile’s mining industry could benefit from integrating blockchain technology. However, these benefits will likely be concentrated among larger projects and contracts, where the costs of implementation and maintenance could be justified by the potential benefits. An exploratory survey on a selected group of senior professionals and executives shows most of respondents do not know the blockchain, and a small fraction of them are barely implementing it. Adoption barriers include limited internal capabilities, implementation challenges, resistance to change, procedural culture, and uncertain financial returns. In spite of these challenges, smart contracts are viewed as highly important for the organization. Our findings also suggest that blockchain could improve transparency, supply chain, reduce accreditation times, and streamline compliance in large-scale operations. A single-site analysis shows modest economic gains (USD 5.6 million NPV) but high returns (~ 2,300% ROI), indicating viability for low-risk implementation. Finally, our study concludes that blockchain offers incremental but valuable improvements, helping Chile’s mining sector enhance efficiency and competitiveness in a rapidly evolving global market. Our contribution is of an exploratory nature, and further research in the direction of designing a model is part of our broader research agenda.

The integration of blockchain technology in biomedical diagnostics offers a promising solution to the challenges of data security and privacy in infectious disease surveillance. As the digitalization of healthcare systems accelerates, the need to protect sensitive health information becomes increasingly critical. Blockchain, with its decentralized and immutable nature, provides a robust framework for ensuring the integrity and confidentiality of biomedical data. This abstract explores how blockchain technology can be leveraged to enhance data security and privacy in the context of infectious disease surveillance, where rapid and accurate data sharing is essential for effective public health responses. Infectious disease surveillance relies on the collection, analysis, and dissemination of large volumes of data, often shared across multiple institutions and geographical regions. Traditional systems for managing this data are vulnerable to breaches, unauthorized access, and data tampering, which can compromise public health efforts and patient privacy. Blockchain technology addresses these vulnerabilities by enabling secure, transparent, and tamper-proof data exchanges. Each transaction or data entry is recorded in a distributed ledger, accessible only to authorized participants, thus ensuring that the data remains secure and unaltered. Moreover, blockchain’s inherent transparency allows for real-time monitoring and auditing of data flows, which is crucial in the timely detection and response to infectious disease outbreaks. The use of smart contracts within blockchain networks further enhances the automation and efficiency of data management, ensuring that data is only accessed and shared according to predefined rules and conditions. This not only safeguards patient privacy but also builds trust among stakeholders, including patients, healthcare providers, and public health authorities. In conclusion, the integration of blockchain technology in biomedical diagnostics presents a transformative approach to addressing the critical issues of data security and privacy in infectious disease surveillance. By leveraging blockchain's unique features, healthcare systems can ensure that sensitive diagnostic data is protected, thus supporting more effective and secure public health interventions in the fight against infectious diseases. Keywords: Blockchain, Biomedical Diagnostics, Data Security, Privacy, Infectious Disease Surveillance.

Impact of government fund policy and blockchain technology on closed-loop supply chains in textile and apparel industry

Analysts and professionals keep on drawing fluctuated interests in blockchain (BC) technology. The idea has- some key highlights, for example, decentralization, dependability, security, and information veracity. In any case, even with the developing interest, much more has to be done concerning the current state of knowledge and practice in relation to the use of BC technology in education. Accordingly, this study presents a review of the current investigations on BC-based learning applications in the education sector. This paper has focused on three major themes: learning applications that have been made using BC technology, the contribution and merits of blockchain technology to the education sector, and the problems experienced while integrating BC technology in the education sector. A concentrated conversation is introduced as well as a complete outcome examination of each topic. This paper also highlights the key areas of the education sector which tend to benefit from the application of Blockchain technology.KeywordsBlockchain technologyDevelopmentEducation sector

Blockchain technology is a distributed database, which realizes the safe trans-mission and sharing of data in a decentralized system through technical means such as consensus mechanism, encryption algorithm and smart contract. Its application in the field of agriculture can effectively solve many problems in the supply chain of agricultural products. Therefore, the application of block-chain technology to agricultural supply chain management can provide security and information sharing for agricultural supply chain management, thus im-proving the operational efficiency of agricultural supply chain. This paper fo-cuses on the problems existing in agricultural supply chain and the application of blockchain technology in agricultural supply chain.

The integration of blockchain technology into green finance has emerged as a transformative approach to fostering sustainable investments, particularly in developing economies like India. This study explores how blockchain enhances transparency, accountability, and efficiency in green finance mechanisms, thereby promoting environmental sustainability. By leveraging features such as decentralization, smart contracts, and immutable records, blockchain can address challenges like fraud, inefficiency, and lack of trust in green financial transactions. The study employs a mixed-methods approach, utilizing surveys and statistical analysis to assess blockchain’s impact on green investment tracking and regulatory compliance. Findings indicate that blockchain significantly improves transparency (β = 0.42, p < 0.01) and automation (β = 0.35, p < 0.01), positively influencing green finance adoption. However, regulatory uncertainty and high implementation costs remain key barriers. The study suggests policy reforms, financial incentives, and capacity-building initiatives to enhance blockchain adoption in India's green finance sector. With strategic interventions, blockchain can serve as a catalyst for accelerating the transition toward a more sustainable and transparent financial ecosystem.

The integration of blockchain technology in healthcare has emerged as a promising solution for addressing the growing concerns of data privacy and security. This case study looks at how blockchain-enabled information systems (BEIS) can be used to handle patient health data, with a focus on making sure that personal medical data is kept private, correct, and easy to access. As telemedicine services grow and electronic health records (EHRs) become more common, the risk of data leaks and illegal access to patient information has grown. Traditional ways of protecting medical data, like centralized systems and security protocols, have trouble making it possible for healthcare providers to share data in a way that is clear and can't be changed. Blockchain is a strong answer to these problems because it is independent. By using smart contracts and cryptography, BEIS makes sure that records of patient information are safe, clear, and can't be changed. Only allowed parties can access these records in real time, which lowers the risk of data being changed or shared without permission. This case study looks at a blockchain-based patient data management system that was put in place in a regional healthcare network. It looks at how it protected privacy, made data easier to access, and made the system scalable. It also talks about the legal effects of using blockchain in healthcare, like how to get patients' permission and make sure that data security rules like GDPR and HIPAA are followed. The study's results show that blockchain has the potential to change the way healthcare data is managed. It could provide a safe and patient-centered way to keep personal health information safe while also encouraging healthcare systems to work together.

The project aims to enhance honeypot security through the integration of blockchain technology into an intrusion detection and prevention system (IDPS). Honeypots are decoy systems deployed to detect, deflect, or study unauthorized use of information systems. By leveraging blockchain, a decentralized and tamper-proof ledger, the project ensures the integrity and immutability of honeypot data, providing robust security against cyber threats.The system employs a blockchain-based architecture where each honeypot event is recorded as a block in the chain, ensuring the integrity of the data. Additionally, smart contracts are utilized to automatically execute predefined actions based on specific conditions detected by the honeypot system, such as blocking IP addresses upon detecting malicious activities. Furthermore, the system facilitates the sharing of threat intelligence among peers in real-time, enhancing collaborative security efforts. Through the integration of blockchain technology, smart contracts, and threat intelligence sharing, the project offers an innovative approach to honeypot security, providing organizations with a more resilient defense against cyber threats.

The world today has realized the vast technological evolution that has greatly shaped the production and management functions of business enterprises. Traditional contracts can take weeks or even months to initiate, and there have been numerous instances of breaches and lack of trust for contracts in both the private and public sector. A smart contract can be defined as a self-executing contract that utilizes blockchain technology to digitally enforce, verify, or facilitate the performance or negotiation of a contract. Owing to the security and decentralized system exhibited by blockchain technology, smart contracts can foster transaction credibility between contracting parties without the necessity of third parties as exhibited in traditional contracts. Any business organization that aims at achieving greater heights in management and production dimensions must consider utilizing robust technologies that are aimed at bolstering its competitive edge. Owing to the newness of smart contracts, characterized by very few studies on the same, this research reviews how smart contracts through blockchain technology can be implemented in an organization to enhance performance and outlines the applications, benefits, and limitations associated with such contracts. Keywords: Blockchain technology; smart contracts; smart contract applications; smart contract benefits; smart contract implementation; cryptography; cryptocurrency DOI : 10.7176/JIEA/9-5-07 Publication date :September 30 th 2019

Among the most crucial jobs in the digitization era is to track the data in real-time for a wide network of healthcare systems. Blockchain technology introduces us to the new age of sharing information in an authorized way using different consensus algorithms to connect the data blocks in chains, along with the help of Hashkeys making it safer. In blockchain technology, any entrance of malicious data replacing the original data cannot be encouraged because the distributed ledgers have the same data in an encrypted manner, and changing the same data in such a huge network is merely impossible, this enhances the security of the user’s information. Smart healthcare systems on a higher basis use Health Information Exchange(HIE), to decentralize the previous health records of the patient between organizations and frequently update them. Smart healthcare systems make it viable for decentralization of patient data, the number of drugs consumed, and statistics of different diseases as 5G plays a major role here because of its distributed implementation, its connectivity with IoTs and IIoTs that help in the easy update of information with the patient's access given. With the advent of 5G-NR, using the modulation techniques of QAM, variable Bandwidth, and the NOMA, it has enhanced higher data rates and high networking capacities. Mobile Edge Computing (MEC) of 5G technology helps in storing and computing data in a decentralized manner with the help of distributed Mobile Cloud Centres(MCC). Over time, many private blockchain technologies have been suggested, which involve only a few organizations and transact data only between them unlike the public blockchain technology thereby increasing the reliability and security. In this chapter, we emphasize smart health sectors, the necessity of blockchain, the different blockchain designs for healthcare applications, and the different proposed algorithms based on 5G, and the chapter concludes with recent advances in 5G networks, the challenges, and potential solutions.