D. Srinivasa Rao, C. Rajasekhar, P. M. K. Prasad, GBSR Naidu
Cryptocurrency has seen an increased popularity with the introduction of Bitcoins. It has been adapted in several countries and has become an alternate solution to conventional currency. Despite its benefits, some controversies surround the manufacturing of bitcoins. While all the countries are moving to sustainability development and global warming control, Bitcoin production has raised several concerns about environmental pollution and sustainability. The increased carbon emissions and high electrical consumption have accompanied the popularity of cryptocurrency. Hence, there is an immediate need to reduce the carbon footprint and electricity consumption caused by human cryptocurrency for a sustainable future. This study presents the current scenario and trends of worldwide cryptocurrency growth and discusses the environmental impact of cryptocurrency mining. It explores crypto mining worldwide and provides a qualitative review. Further, this article highlights the need to take necessary measures to control cryptocurrency circulation.
This study introduces a system using Non-Fungible Tokens (NFTs) to track and report carbon emissions in supply chains accurately. It addresses the problem of double counting, which occurs when the same emissions are recorded multiple times due to product segmentation and integration. Our system uses blockchain technology to ensure NFTs are traceable and tamper-proof, enhancing data reliability. The system includes three types of NFTs: Parent NFTs (P-NFTs) for energy and raw material data, Child NFTs (C-NFTs) for manufacturing emissions, and Integration NFTs (I-NFTs) that compile the carbon footprint of final products. This method improves accurate emission tracking and transparency across the supply chain.
Abstract The classical pathway of mass production followed a linear model with trashed products and wasted remaining materials at the final stage of their life cycle. Smart approaches of manufacturing and product life cycle management aim for Circular Economy (CE) models to implement sustainable business models to overcome imbalances between resource supply and demand of goods. Non-Fungible Token (NFT) solutions together with smart contracts seem to have the potential to realise such new sustainable business models in the context of CE. The study demonstrates how NFT technology can become an integral part of smart product life cycle management for batteries of e-cars. The research highlights how circular business models can be developed and implemented in the e-car sector around the life cycle management of batteries as well as how NFT technology can contribute to sustainable conceptualisation for battery recycling.
The environmental impact of Bitcoin mining has raised severe concerns considering the expected growth of 30% by 2030. This study aimed to develop a Life Cycle Assessment model to determine the carbon dioxide equivalent emissions associated with Bitcoin mining, considering material requirements and energy demand. By applying the impact assessment method IPCC 2021 GWP (100 years), the GHG emissions associated with electricity consumption were estimated at 51.7 Mt CO2 eq/year in 2022 and calculated by modelling real national mixes referring to the geographical area where mining takes place, allowing for the determination of the environmental impacts in a site-specific way. The estimated impacts were then adjusted to future energy projections (2030 and 2050), by modelling electricity mixes coherently with the spatial distribution of mining activities, the related national targeted goals, the increasing demand for electricity for hashrate and the capability of the systems to recover the heat generated in the mining phase. Further projections for 2030, based on two extrapolated energy consumption models, were also determined. The outcomes reveal that, in relation to the considered scenarios and their associated assumptions, breakeven points where the increase in energy consumption associated with mining nullifies the increase in the renewable energy share within the energy mix exist. The amount of amine-based sorbents hypothetically needed to capture the total CO2 equivalent emitted directly and indirectly for Bitcoin mining reaches up to almost 12 Bt. Further developments of the present work would rely on more reliable data related to future energy projections and the geographical distribution of miners, as well as an extension of the environmental categories analyzed. The Life Cycle Assessment methodology represents a valid tool to support policies and decision makers.
This review examines how blockchain technology can be leveraged to enhance data privacy and security in sustainable supply chain management (SSCM). As global supply chains become increasingly complex and the demand for sustainability grows, ensuring data privacy and security has become a critical concern. Traditional supply chain systems often face challenges such as data breaches, lack of transparency, and difficulty in tracing products and materials. Blockchain technology, with its decentralized, immutable, and transparent architecture, offers a promising solution to these challenges. Blockchain can enhance data security by ensuring that data is tamper-proof, traceable, and encrypted, thus protecting sensitive information across the supply chain. It provides transparency while allowing permissioned access, ensuring that stakeholders can verify data without exposing confidential information. Furthermore, privacy-preserving technologies such as zero-knowledge proofs and homomorphic encryption allow verification of data without compromising its security. Smart contracts enable automated compliance with regulatory frameworks like GDPR, reducing the risk of human error and improving operational efficiency. The integration of blockchain in SSCM can improve traceability, transparency, and accountability, thereby promoting environmental and social sustainability. By tracking the origin and journey of goods, blockchain helps verify ethical sourcing practices and reduce carbon footprints. However, the technology also presents challenges, including scalability, integration with legacy systems, and cost considerations. Through case studies in industries such as food, textiles, and renewable energy, this review highlights the practical applications and benefits of blockchain for SSCM. It concludes that blockchain has the potential to revolutionize supply chain operations, but careful consideration must be given to overcoming its technical and financial barriers to widespread adoption.
Despite numerous use cases, enterprise-wide implementations of blockchains have seen limited success. This raises the question of when do firms adopt blockchains and do blockchains benefit supply chains. To answer this, we examine a dyadic supply chain consisting of a buyer and a supplier and analyze their traceability effort and pricing decisions. Our results show that the demand-side, supply-side and reputational factors influencing blockchain adoption are primarily complementary and in the absence of one of them, firms can still adopt blockchain. Furthermore, even in the absence of individual benefits for a supply chain partner, there exist conditions under which blockchain adoption benefits the supply chain that can incentivize players to join blockchain. Overall, we contribute by offering a framework that supply chain players can use to assess the likelihood of blockchain implementation success or failure and address the challenges pertaining to incentives and cost imbalances in blockchain implementation.
Abstract Purpose Blockchain has the potential to bring numerous benefits to life cycle assessment (LCA), such as traceability, transparency, and accurate inventory data and assessment results. Consequently, there has been a gradual emergence of research focusing on the integration of blockchain and LCA in recent years. The aim of this study is to provide an up-to-date and comprehensive state of research on blockchain-LCA integration. Methods This study undertook a systematic review of published articles on blockchain-LCA integration, analyzing the papers indexed so far in the Web of Science and SCOPUS. Thirty-one articles were identified, on which a bibliometric analysis was carried out. Furthermore, this study extracted and synthesized the data for the themes of benefits, barriers, frameworks and models, and case studies, and conducted detailed analysis for each theme. Results and discussion The results indicated that the current state of research in this field is still in its early stages. Most articles proposed various potential benefits across different stages of the integration. However, the integration faced various technical, organizational, and system-related barriers. Only a limited number of articles presented frameworks, models, and case studies. Currently, there is a significant lack of case studies rooted in real-world data. Based on the results of the review, this study offered relevant suggestions for future development of the blockchain-LCA integration. Additionally, this study proposed a novel and practical generic framework to provide guidance for the continued advancement in this field. Conclusion This work reveals that the number of studies of blockchain-LCA integration is increasing, but this field is still in the early stages. Many potential benefits and barriers to the integration were proposed, but most of them lack validation within the existing research. In particular, there is a great need for real-world case studies.
Introduction; Bridging the digital divide requires the provision of affordable, fair and quality ICT. With nearly two-thirds of the world’s population still offline, there is a need to provide affordable web access for everyone. For developing countries, increasing the popularity of information and communication technology has become the most important factor in reducing poverty. The danger of electrical and electronic waste disposal contains hazardous substances, but most of the electrical and electronic equipment is still disposed of in an unhealthy environment in the field development area, affecting the level of contamination in Water, Air and Soil ultimately affecting people’s health. Eliminating E-waste responsibility and protecting the environment is a challenge for countries. Smart cities can solve environmental problems through proper waste management for improving human health, protecting water resources, and reducing pollution. Objective; In this paper, we explore how blockchain technology can help smart cities to manage E-waste by providing consistency, immutability, transparency, and accountability control in a distributed, reliable, and secure manner. We discussed the advantages of blockchain technology in various aspects of E-waste management, such as instant tracking and monitoring, E-waste disposal and E-waste management regulation compliance, proper disposal management, E-waste management, and material handling, etc. All examples of disposal services, but in our study we have found that there is no fool proof system to check the disposal of E-waste whether it has been disposed off Fully or Partially. We mainly focused on the tracking of E-waste management system for 100% safe and eco-friendly disposal from the originating point of E-waste to end disposal point of total disposal. Methods; For this, we have used machine-learning model to find the existing percentage of disposal of E-waste at the end-point which reveals that it is never 100%. And partial disposal of E-waste means we have still partial E-waste around us in different forms, which will be a threat for the society to be indulged in hazardous after effects of randomly dumping E-waste.Results; After this we have modelled a Disposal Tracking System(DTS) using blockchain technology to create an E-waste data storage as Decentralized Shareable Ledger (DSL) which records the quantity and state of E-waste data from its originating point to a different level of disposal unit and finally reflect the balance of E-waste data as NIL at the end of last disposal point.Conclusion; This system will helpful for safe and ecofriendly E-waste management and it provides complete transparency and traceability of E-waste during the life cycle of complete disposal. After implementation of this system any district or Block or Village authority can ensure to its citizens for E-waste hazards free environment and safety of natural resources
The difficulty of regulating carbon trading due to information asymmetry and low consumer trust in low-carbon products are key factors hindering companies from reducing emissions. This paper examines a manufacturer-led secondary low-carbon supply chain consisting of a single supplier and a retailer, focusing on the impact of blockchain technology on carbon transaction costs and consumers’ low-carbon preferences. Utilizing Stackelberg game theory, the paper constructs a supply chain decision model for emission reduction, determining the payment matrix and analyzing the stable strategy for blockchain adoption through evolutionary game theory. The findings indicate that retailers’ adoption of blockchain technology significantly promotes emission reduction within the supply chain, whereas manufacturers’ adoption has minimal impact. Additionally, the study reveals that variations in blockchain adoption costs and carbon quotas result in multiple evolutionary stable strategies. Specifically, when blockchain adoption costs and carbon quotas are below certain thresholds, the system reaches a unique equilibrium where both parties adopt blockchain technology.
Gang Ping, Sherry X Wang, F. Zhao, Zeyu Wang · 5 authors
This study explores the application of blockchain technology in e-waste recycling, focusing on enhancing reverse logistics data tracking. A blockchain-based system integrating IoT sensors, smart contracts, and a token-based incentive mechanism was designed and implemented. The case study in Metropolis demonstrated significant improvements in e-waste management efficiency. Recycling rates increased by 27%, material recovery efficiency improved by 18%, and stakeholder participation doubled. The system processed an average of 50,000 transactions daily, proving its scalability. The blockchain implementation addressed key challenges in e-waste management, including lack of transparency and inefficient processes. The immutable audit trail enhanced traceability, fostering trust among participants. The token-based incentive system drove behavioral changes, increasing consumer participation by 119%. The study contributes to the theoretical understanding of blockchain applications in environmental management and extends literature on reverse logistics. Practical implications include a blueprint for implementing blockchain-based e-waste management systems, insights for policymakers, and opportunities for technology developers. The research demonstrates blockchain's potential to address environmental challenges, offering a promising path towards sustainable resource management practices. Future research directions include exploring cross-border e-waste management and integrating artificial intelligence for predictive analytics.
Inês A. Ferreira, Guido Palazzo, António Pinto, Pedro Pinto · 7 authors
Abstract Adopting innovative technologies such as blockchain and additive manufacturing can help organisations promote the development of additive symbiotic networks, thus pursuing higher sustainable goals and implementing circular economy strategies. These symbiotic networks correspond to industrial symbiosis networks in which wastes and by-products from other industries are incorporated into additive manufacturing processes. The adoption of blockchain technology in such a context is still in a nascent stage. Using the case study method, this research demonstrates the adoption of blockchain technology in an additive symbiotic network of a real-life context. The requirements to use a blockchain network are identified, and an architecture based on smart contracts is proposed as an enabler of the additive symbiotic network under study. The proposed solution uses the Hyperledger Fabric Attribute-Based Access Control as the distributed ledger technology. Even though this solution is still in the proof-of-concep t stage, the results show that adopting it would allow the elimination of intermediary entities, keep available tracking records of the resources exchanged, and improve trust among the symbiotic stakeholders (that do not have any trust or cooperation mechanisms established before the symbiotic relationship). This study highlights that the complexity associated with introducing a novel technology and the technology’s immaturity compared to other data storage technologies are some of the main challenges related to using blockchain technology in additive symbiotic networks.
This paper examines the use of blockchain technology in power battery echelon recycling. The technology helps to improve battery capacity identification and market transaction trust. The study focuses on power battery manufacturers and recycling participants. Two recycling modes are constructed using the Stackelberg game method, and the optimal decision-making of the participating subjects in the two modes of power battery echelon recycling under the embedding of blockchain technology is compared. The influence of each parameter on the optimal decision-making is analyzed. The research findings indicate that the degree of blockchain technology integration rises as the preference coefficient for traceability information increases. When recycling competition is intense and the sensitivity of recycling prices is low, the optimal recycling model for the number of spent power batteries (SPBs) to be recycled is the model in which echelon utilizers do not participate in recycling if the level of cost optimization coefficient embedded in blockchain technology is high, otherwise, it is the model in which echelon utilizers participate in recycling. The profit of power battery manufacturers and echelon utilizers decreases with the increase of the intensity of power battery recycling competition, the cost optimization coefficient of echelon utilizers and the cost optimization coefficient of manufacturers.
Abstract Purpose Social life cycle assessment (S-LCA) allows for quantifying the social aspects related to the life cycle of a product and/or organization through an integrated and holistic approach. While there have been methodological and implementation advancements over the last years, there are still several critical issues, such as concern about the quality and availability of the data used in the assessment process. Therefore, this study aims to discuss the main peculiarities of Blockchain Technology and how it could be useful for S-LCA applications. Method The characteristics of Blockchain Technology were investigated in order to understand how and whether can be a synergistic support in the implementation of S-LCA. In order to do this, the main challenges and gaps of S-LCA methodology are identified. Therefore, a literature analysis was performed to identify the characteristics of Blockchain Technology within the context of SCM, how these peculiarities already support the life cycle thinking (LCT) tools, and whether these synergies can support also S-LCA studies. Results and discussion Blockchain is considered a revolutionary tool for supporting supply chain management due to its distributed data recording and assets tracking platform, which enhances transparency and provides real-time information. The traceability offered by Blockchain can be a valuable resource for conducting LCT studies, enabling improved data differentiation and origin identification as well as the identification of technology and inputs involved in analyzed product systems. Additionally, modeling a Blockchain to incorporate social data can aid in identifying locations, and the correlated social issues, where potential social risks occur by monitoring them over time. Consequently, a set of social indicators directly linked to social data should be defined for each supply chain evaluated. Conclusions The use of Blockchain Technology within S-LCA methodology approach will help organizations toward stronger supply chain management practices by tracing sustainable information related to products. Consequently, it can provide more transparent, reliable, and verifiable information to consumers on the product’s life cycle. From a methodological perspective, Blockchain Technology can serve to collect social data along the supply chain, thereby contributing to a comprehensive understanding of the life cycle of the product. By doing so, it is possible to identify social and socio-economic risks throughout the supply chain and monitor them over time in order to be used as potential internal benchmarks. Further developments will be needed to define the integration of Blockchain Technology within the framework of S-LCA and more broadly in social organizational LCA.
Katarzyna Bułkowska, Magdalena Zielińska, Maciej Bułkowski
Effective management of recyclable plastic waste is critical for environmental sustainability and economic viability. Blockchain technology has transformative potential in addressing the challenges of plastic waste management. Currently, the inefficiency of plastic recycling systems results in low recycling rates and significant environmental impacts due to poor sorting, contamination, and limited technology application. However, innovations such as chemical recycling, solvent-based techniques, and biotechnology offer promising advances in the management of plastic waste. Blockchain technology provides a transparent, decentralized ledger that enhances traceability and incentives through smart contracts, decentralized applications (DApps), and digital watermarks. These blockchain solutions can improve waste tracking, automate payments, and reward participants who recycle responsibly. Although significant investment in technology and education is required, integrating blockchain with the Internet of Things (IoT) and artificial intelligence (AI)-driven analytics could revolutionize plastic waste management by creating transparent, efficient, and collaborative recycling ecosystems. Blockchain technology has immense potential to redefine the management of plastic waste and promote a sustainable, circular economy.
It is established that based on the industrial revolutions towards Industry 5.0, the population of the Earth and its well-being are increasing. To preserve and improve living conditions the development in all spheres of life is by the paradigm of sustainable development. Through the prism of the mining industry, one step could be the introduction of circular economy measures for digitized tracking of materials, repairs, consumed electricity, safety, and finances. Implementing of electric cars is an option to achieve this goal through automation, manageability, and data traceability via Industry 4.0 technologies. Such are blockchain technologies, IoT, V2V, and others. For this purpose, the appropriate types of power supplies for electric vehicles for the mining sector have been identified and information flows have been defined. They are quantity of material, consumed electricity, state of the fleet, charging of batteries and operation of charging stations, and finances. For their implementation, Hyperledger Fabric was chosen as a suitable DLT platform ([1], [2]). Based on Hyperledger Fabric, a conceptual model for tracking material quantities as a step of the circular economy is proposed. A method of communication is shown in the presence of two channels - material and repairs for an electric car.
Robert G. Werner, Dominique Briechle, Marit Elke Anke Mathiszig
Currently, the ad hoc, one-way distribution of pharmaceuticals from pharmacies to their customers is inefficient and high in emissions. The HitchhikeBox concept aims to improve the current logistics system by utilizing existing transport channels. This eliminates the need for single-purpose delivery trips and personnel. The system is open to competing service providers, with fully automated contract management, payment and sanctioning of the parties involved. The system utilizes asymmetric encryption and zero-knowledge proofs to guarantee user privacy and non-traceability of deliveries for contracts, payments, and sensor data. The system is designed to be resilient, self-governing and suitable for highly sensitive goods, such as the transport of pharmaceuticals, by ensuring their optimal condition. In addition, the system utilizes smart contracts to conclude and enforce contracts, as well as a distributed off-chain cluster to process and store data in a GDPR-compliant manner. The HitchhikeBox concept facilitates semi-automated, cost-effective and eco-friendly logistics while maintaining reliability, privacy and liability.
In the era of globalisation, the use of technology and concerns for sustainability is eminent in the supply chain management practices. The current study focuses on sustainable and green supply practices in different stages of supply chain management and how they can be facilitated by blockchain technology (BT). The study has addressed the existing gaps in the area namely, the lack of research assessing stage-wise green supply chain for environmental performance focusing on BT. The current study aims to assess the impact of BT on different stages of the green supply chain and a firm's environmental performance. The study also focuses on analyzing the impact of green supply chain stages on environmental performance. The study uses PLS-based structural equation modelling approach to investigate the hypothesised relationships between BT adoption and stage-wise green supply chain practices. The data was collected from individuals from medium-sized enterprises from the manufacturing industry in India. The findings reveal a positive association between blockchain adoption and green supply chain management practices leading to enhancement in environmental performance. Furthermore, the study indicates a positive relationship between blockchain integration and different stages of the green supply chain, underscoring its multi-faceted impact on environmental performance. The findings imply that the BT adoption can facilitate the realization of sustainable supply chain practices and performance improvement.
The growing complexity of construction supply chains and the significant impact of the construction industry on the environment demand an understanding of how to reuse and repurpose materials. In response to this critical challenge, research gaps that are significant in promoting material circularity are described. Despite its potential, the use of blockchain technology in construction faces challenges in verifiability, scalability, privacy, and interoperability. We propose a novel multilayer blockchain framework to enhance provenance tracking and data retrieval to enable a reliable audit trail. The framework utilises a privacy-centric solution that combines decentralised and centralised storage, security, and privacy. Furthermore, the framework implements access control to strengthen security and privacy, fostering transparency and information sharing among the stakeholders. These contributions collectively lead to trusted material circularity in a built environment. The implementation framework aims to create a prototype for blockchain applications in construction supply chains.
The conventional traceability system faces challenges such as centralized control, lack of transparency, unreliable data, and the frequent creation of information silos. To address these issues, this paper introduces a blockchain-based traceability system tailored for the storage and retrieval of product information in the agricultural supply chain. Utilizing blockchain's inherent properties of decentralization, immutability, and traceability, this system enhances the transparency and trustworthiness of traceability data. Furthermore, the integration of blockchain technology with cryptography is suggested to enable the secure exchange of private information within the blockchain network. Additionally, we have developed a reputation-based smart contract system to motivate network participants to contribute traceability data actively. This approach aims to leverage blockchain's capabilities to overcome the limitations of traditional traceability systems in the agricultural sector. This research paper explores the role of blockchain technology in enhancing supply chain transparency and efficiency, focused on food and agriculture sector. It underscores the growing consumer demand for authentic product and the challenges of maintaining transparency is increasingly becoming difficult in global and complex markets. Findings reveal that blockchain has significant capabilities to increases transparency, traceability, and security, while potentially reducing costs and errors. However, the study also identifies challenges, such as technological complexities, scalability issues, regulatory uncertainties, and integration hurdles. A strategic framework for adopting blockchain in retail supply chains is proposed, offering insights for practitioners and policy considerations. The paper also designs a novel traceability system for agricultural product supply chains, employing blockchain technology to address issues such as centralized management, opaque information, and data unreliability. The study concludes that while blockchain technology presents significant opportunities for transforming supply chains, realizing its full potential necessitates careful strategizing and sector-wide collaboration. The research offers recommendations for practitioners and outlines directions for future research, highlighting that the successful application of blockchain hinges on organizational adjustments and meeting specific boundary conditions.
Mohammad Jabed Morshed Chowdhury, Naveed Ul Hassan, Wayes Tushar, Niyato, Dustin · 7 authors
The adoption of renewable energy resources, such as solar power, is on the rise. However, the excessive installation and lack of recycling facilities pose environmental risks. This paper suggests a circular economy approach to address the issue. By implementing blockchain technology, the end-of-life (EOL) of solar panels can be tracked, and responsibilities can be assigned to relevant stakeholders. The degradation of panels can be monetized by tracking users' energy-related activities, and these funds can be used for future recycling. A new coin, the recycling coin (RC-Coin), incentivizes solar panel recycling and utilizes decentralized finance to stabilize the coin price and supply issue.
Purpose Firms are increasingly pressured to comply with mandatory supply chain transparency (SCT) regulations. Drawing on information processing theory (IPT), this study aims to show how blockchain technology can address information uncertainty and equivocality in assuring regulatory compliance in an interorganizational network (ION). Design/methodology/approach IPT is applied in a single case study of an ION in the mining industry that aimed to implement blockchain to address mandatory SCT regulations. The authors build on a rich proprietary data set consisting of interviews and substantial secondary material from actors along the supply chain. Findings The case shows that blockchain creates equality between actors, enables compliance and enhances efficiency in an ION, reducing information uncertainty and equivocality arising from conflict minerals regulation. The system promotes engagement and data sharing between parties while protecting commercial sensitive information. The lack of central authority prevents larger partners from taking control. The system provides mineral provenance and a regulation-compliant record. System cost analysis shows that the system is efficient as it is inexpensive relative to volumes and values of metals transacted. Issues were identified related to collecting richer human rights data for assurance and compliance with due diligence regulations. Originality/value The authors provide some of the first evidence in the operations and supply chain management literature of the specific architecture, costs and limitations of using blockchain for SCT. Using an IPT lens in an ION setting, the authors demonstrate how blockchain-based systems can address two key IPT challenges: environmental uncertainty and equivocality.
As global concerns about environmental sustainability and ethical sourcing continue to rise, supply chain management faces increasing pressure to adopt transparent and accountable practices. This research paper provides a comprehensive review of the application of blockchain technology in the pursuit of sustainable supply chains. By leveraging the decentralized and immutable nature of blockchain, organizations can enhance transparency, traceability, and overall sustainability throughout the supply chain. The paper reviews existing literature, analyzes real-world case studies, and identifies key benefits and challenges associated with implementing blockchain in supply chain management. Furthermore, the research explores potential future developments and innovations in blockchain technology that could further advance sustainable practices within global supply chains. This study contributes to the growing body of knowledge on the intersection of blockchain technology and sustainable development, offering insights for academics, practitioners, and policymakers.
One of the most important sectors of the world economy is the mining and metals sector. Although, many operational and commercial procedures continue to be ineffective and out-of-date, which results in crucial data omissions, security flaws, and sometimes corruption. Given that the mining industry wants to increase the emphasis on ethical and open mining practices, the industry has been looking for ways to incorporate these practices. It is envisioned that such practices will contribute to the modernisation of supply chains in addition to helping to reduce risks related to sustainability and reputation. The application of blockchain technology in the minerals industry capable of tracking natural resources has been discussed in this study, giving a much-needed layer of transparency of this technology. However, there are a lot of difficulties and problems that come up when thinking about blockchain technology; if it is to advance as an industry standard, stakeholders will need to evaluate the usefulness and scalability of the technology. While blockchain technology can be applied to a wide range of areas in the minerals industry, this study shines more light on the application of this technology to conflict minerals tracking, mineral resources reporting cheating scandals, rock mechanics designs and monitoring strategy, blasting designs and operation, mine ventilation designs and applications, mining machinery maintenance and management, and mining surveying. The study reveals that blockchain technology is starting to be seriously evaluated and used by a variety of stakeholders, even though broad acceptance has not yet been attained.