1 Introduction
Artificial intelligence (AI) | Blockchain |
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AI is driven by centralized infrastructure. | Blockchain is predicated on decentralized and distributed infrastructure. |
AI decisions are made by machine learning systems that are unexplainable to human users, and thus, lacks transparency. | Blockchain can be explained to human users and is transparent as it can be tracked. |
AI is probabilistic. | Blockchain is deterministic. |
AI models and adapt over time. | Blockchain is immutable. |
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RQ1. What is the publication productivity of research on AI and blockchain integration for business? The answer to this research question offers insights on the number and growth of scientific articles in the field.
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RQ2. What are the most influential articles on AI and blockchain integration for business? The answer to this research question enables academic scholars and business professionals to locate the key and seminal articles in the field.
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RQ3. What are the most prominent topics and themes on AI and blockchain integration for business? The answer to this research question provides a comprehensive understanding on the content in the field’s body of knowledge.
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RQ4. What are the most promising areas for business to apply AI and blockchain integration? The answer to this research question guides business professionals on the application of AI and blockchain integration.
Research gap | Research question | Research contribution |
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The paucity of objective retrospections on the extant literature of AI-blockchain integration and its business application. | RQ1. What is the publication productivity of research on AI and blockchain integration for business? | • Insights on year-wise distribution of publications. • Most of publications appeared in 2019 and 2020, which indicates an emerging field of research with ample scope for further investigation. |
RQ2. What are the most influential articles on AI and blockchain integration for business? | • Insights on highly cited articles. • Enable academic scholars and business professionals interested in AI-blockchain integration for business to easily key and seminal readings in the field. | |
The absence of a review that objectively investigates the emerging topics and themes in research on the integration of AI and blockchain for business application. | RQ3. What are the most prominent topics and themes on AI and blockchain integration for business? | • The top 20 topics in the field are revealed through a keyword co-occurrence analysis. • The four major themes of research in the field are revealed through bibliographic coupling. |
The dearth of studies investigating the different areas in business that benefitted from the application of integrated AI-blockchain platforms. | RQ4. What are the most promising areas for business to apply AI and blockchain integration? | • 10 application areas for AI-blockchain integration in business are identified. • The value-added contribution of AI-blockchain integration to the processes, products, and/or services in each of the 10 application areas are provided. |
Study | Focus | Method | Contribution |
---|---|---|---|
Omohundro (2014) | Application of AI in smart contracts and cryptocurrencies. | Critical review | • How smart contract and cryptocurrencies can provide infrastructure to ensure that AI systems follow stipulated safety and legal regulations. |
Karafiloski and Mishev (2017) | Resolving big data challenges through blockchain solutions. | Critical review | • How blockchain can be used for organizing, storing, and processing big data. • The role of blockchain for user authentication, recording data access history, and restricting user access based on need. |
Dinh and Thai (2018) | Conceptual ideas of AI and blockchain integration. | Critical review | Two main perspectives: • How AI can be used for blockchain. • How blockchain can be used for AI. |
Salah et al. (2019) | Research challenges on the use of blockchain for AI. | Critical review | Using blockchain for AI improves: • Data security. • Business process efficiency. • Trust on robotic decisions. • Collective decision making. • Decentralized intelligence. |
Pandl et al. (2020) | Convergence of AI and distributed ledger technology (or blockchain). | Systematic literature review | Insights on the different ways in which: • AI can benefit distributed ledger technology. • Distributed ledger technology can benefit AI. |
The present study | Applications of integrated AI and blockchain platforms in business. | Bibliometric-content review | Insights on AI and blockchain integration in business in terms of: • Publication productivity by year. • Most influential articles. • Prominent topics and co-occurrences. • Intellectual structure and its major thematic clusters. • 10 application areas. |
2 Methodology
2.1 Defining the Aims and Scope for Study
2.2 Choosing the Techniques for Analysis
2.3 Collecting the Data for Analysis
Search string | Search results |
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(“Machine Learning”) OR (“AI”) OR (“Neural Network”) OR (“Artificial Intelligence”) OR (“Deep Learning”) | 872 articles |
AND | |
(“Blockchain”) OR (“Block-chain”) OR (“Block chain”) OR (“Bitcoin”) OR (“Ethereum”) OR (“Hyperledger”) OR (“Cryptocurrency”) OR (“Smart contract”) OR (“Distributed Ledger Technology”) OR (“DLT”) OR (“Distributed Ledger”) |
Steps | Articles excluded | Reason for exclusion | Articles included | Reason for inclusion |
---|---|---|---|---|
Step 1. Scopus search | 0 | Not a filtering step. | 872 | Results returned from search. |
Step 2: Read title and abstract of articles | 90 | Articles do not cover the integration of AI and blockchain—only either one of the two technologies, not both. | 782 | Articles cover the integration of AI and blockchain. |
Step 3: Read full text of articles | 676 | Articles focus only on core technical aspects of integrated AI and blockchain platforms, and do not explicitly explain the benefits of the technological integration to business functions. | 106 | Articles goes beyond core technical aspects, and explicitly discuss the applications and benefits of integrated AI and blockchain platforms in/for business. |
2.4 Conducting the Analysis and Reporting the Findings
3 Findings
3.1 Publication Productivity
3.2 Most Influential Articles
Rank | Year | Title | Author(s) | Journal | TC |
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1 | 2018 | Converging blockchain and next-generation artificial intelligence technologies to decentralize and accelerate biomedical research and healthcare | Mamoshina et al. | Oncotarget | 102 |
2 | 2019 | Performance optimization for blockchain-enabled industrial internet of things (IIOT) systems: A deep reinforcement learning approach | Liu et al. | IEEE Transactions on Industrial Informatics | 47 |
3 | 2018 | Credit evaluation system based on blockchain for multiple stakeholders in the food supply chain | Mao et al. | International Journal of Environmental Research and Public Health | 44 |
4 | 2020 | Machine learning adoption in blockchain-based smart applications: The challenges, and a way forward | Tanwar et al. | IEEE Access | 39 |
5 | 2019 | Blockchain adoption: A value driver perspective | Angelis and da Silva | Business Horizons | 37 |
6 | 2020 | BlockIoTIntelligence: A blockchain-enabled intelligent IoT architecture with artificial intelligence | Singh et al. | Future Generation Computer Systems | 27 |
7 | 2020 | Smart contract privacy protection using AI in cyber-physical systems: Tools, techniques and challenges | Gupta et al. | IEEE Access | 27 |
8 | 2019 | Regulating Cryptocurrencies: A supervised machine learning approach to de-anonymizing the bitcoin blockchain | Sun Yin et al. | Journal of Management Information Systems | 26 |
9 | 2019 | Machine learning based privacy-preserving fair data trading in big data market | Zhao et al. | Information Sciences | 25 |
10 | 2019 | A blockchain and automl approach for open and automated customer service | Li et al. | IEEE Transactions on Industrial Informatics | 19 |
11 | 2019 | An intelligent blockchain-based system for safe vaccine supply and supervision | Yong et al. | International Journal of Information Management | 14 |
12 | 2020 | Food traceability system from governmental, corporate, and consumer perspectives in the European Union and China: A comparative review | Qian et al. | Trends in Food Science and Technology | 10 |
13 | 2020 | Blockchain and machine learning for communications and networking systems | Liu et al. | IEEE Communications Surveys and Tutorials | 9 |
14 | 2020 | IoT-blockchain enabled optimized provenance system for food industry 4.0 using advanced deep learning | Khan et al. | Sensors | 8 |
15 | 2020 | Blockchain for explainable and trustworthy artificial inteavblligence | Nassar et al. | Wiley Interdisciplinary Reviews: Data Mining and Knowledge Discovery | 8 |
16 | 2020 | Transforming business using digital innovations: The application of AI, blockchain, cloud and data analytics | Akter et al. | Annals of Operations Research | avb |
17 | 2020 | Artificial intelligence implementations on the blockchain. Use cases and future applications | Sgantzos and Grigg | Future Internet | 8 |
18 | 2019 | Big data, blockchain, and artificial intelligence in cloud-based accounting information systems | Ionescu | Analysis and Metaphysics | 7 |
19 | 2020 | CrowdSFL: A secure crowd computing framework based on blockchain and federated learning | Li at al. | Electronics | 5 |
20 | 2019 | A blockchain-based evaluation approach for customer delivery satisfaction in sustainable urban logistics | Tian et al. | International Journal of Production Research | 4 |
3.3 Most Prominent Topics
Keyword(s) | Occurrence(s) |
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Blockchain | 74 |
Artificial intelligence | 31 |
Smart contract | 22 |
Machine learning | 19 |
Internet of things | 13 |
Security | 7 |
Big data | 6 |
Cybersecurity | 6 |
Industry 4.0 | 5 |
Distributed ledger technology | 5 |
Bitcoin | 4 |
Deep learning | 4 |
Ethereum | 4 |
Privacy | 4 |
Security and privacy | 4 |
Industrial internet of things | 4 |
Distributed ledger | 3 |
Cyber-physical system | 2 |
Assessment | 2 |
Cloud computing | 2 |
Keyword 1 | Keyword 2 | Weight |
---|---|---|
Blockchain | Machine learning | 16 |
Blockchain | Smart contract | 9 |
Blockchain | Security | 7 |
Big data | Artificial intelligence | 5 |
Smart contract | Machine learning | 5 |
Blockchain | Bitcoin | 4 |
Blockchain | Deep learning | 4 |
Blockchain | Internet of things | 4 |
Blockchain | Distributed ledger technology | 3 |
Blockchain | Ethereum | 3 |
Blockchain | Industry 4.0 | 3 |
Blockchain | Privacy | 3 |
Blockchain | Security and privacy | 3 |
Ethereum | Smart contract | 3 |
Ethereum | Machine learning | 3 |
Privacy | Security | 3 |
Security | Artificial intelligence | 3 |
3D printing | Blockchain | 2 |
Blockchain | Assessment | 2 |
Blockchain | Audit | 2 |
Thematic cluster | Application | Source |
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Cluster 1. IR 4.0 and supply chains | A technology called PriModChain based on ethereum blockchain, smart contracts, federated machine learning, and differential privacy that enforces privacy and ensure trustworthiness of IIoT data. | Arachchige et al. (2020) |
A three-layer blockchain enabled cyber physical system (BCPS) that addresses the challenges of current manufacturing processes related to security, transparency, privacy, trustworthiness, and efficiency, among others. | Lee et al. (2019) | |
A production capability evaluation system based on machine learning, IoT, and blockchain technology that improves the production efficiency of manufacturing systems. | Li et al. (2020) | |
Mitigating the issues related to vaccine expiration and vaccine record fraud through an intelligent system based on blockchain and machine learning algorithms. | Yong et al. (2020) | |
A digital platform applying AI, blockchain, edge computing, and IoT to enable resource monitoring and traceability in blockchain. | Alonso et al. (2020) | |
Cluster 2. Smart healthcare | Preventing forgery and misrepresentation of medical data using neural networks and error backpropagation blockchain framework. | Kim and Huh (2020) |
Preserving health data using GuardHealth, a technology based on consortium blockchain, smart contract, and graph convolution network, which eventually guarantees security of the system. | Wang et al. (2020) | |
Enabling patients to control their own medical records through AI-mediated health data exchange on blockchain. | Mamoshina et al. (2018) | |
A predictive system based on the combination of AI and blockchain to control the risk of COVID-19. | Fusco et al. (2020) | |
A predictive model for intelligent storage allocation decision for health data using a machine learning classifier and a blockchain-based repository. | Uddin et al. (2020) | |
Cluster 3. Secure transactions | De-anonymizing the bitcoin blockchain through a supervised machine learning approach to identify bitcoin users involved in cybercriminal activities. | Sun Yin et al. (2019) |
A technology based on machine learning architecture identifying suspicious behavior of bitcoin users. | Irwin and Turner (2018) | |
A unique solution to mitigate the risk of identity theft in the case of online transactions based on machine learning, blockchain, IoT, and online signature verification. | Jain et al. (2019) | |
Mitigating the imperfections of secured transaction legal systems based on the integration of AI, IoT, and smart contract. | de las Heras Ballell (2017) | |
Cluster 4. Finance and accounting | Automation of accounting decisions using AI and blockchain transforming the day-to-day work of accountants. | Moll and Yigitbasioglu (2019) |
Automated and secure financial transactions through integration of AI, blockchain, big data, and cloud computing with finance. | Zheng et al. (2019) | |
Financial portfolio management and optimization through DeepBreath, an application of convolution neural network and blockchain. | Soleymani and Paquet (2020) | |
Prevention of corporate frauds using smart contracts and advanced AI. | ||
Mitigating credit risk by integrating blockchain technology and the long short term memory (LSTM) deep learning. | Mao et al. (2018) |
3.4 Most Prominent Themes
3.4.1 Cluster 1: IR 4.0 and Supply Chains
3.4.2 Cluster 2: Smart Healthcare
3.4.3 Cluster 3: Secure Transactions
3.4.4 Cluster 4: Finance and Accounting
3.5 Areas for AI and Blockchain Integration in Business
No | Area | Application exemplar | Value of application | Technologies | Source |
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1 | E-commerce | Optimization of e-commerce platform | The structure of e-commerce websites can be optimized through AI and blockchain integration, whereby the application of blockchain technology solves the problem of cross border electronic payment, whereas the recommender system in e-commerce based on machine learning algorithms can help in online decision making. | • Blockchain • Deep learning • Neural network | Li et al. (2019) |
2 | Finance and accounting | Automated insurance system | An automated insurance system framework based on blockchain and extreme gradient boosting (XGBoost) machine learning algorithm can help to detect fraudulent claims, provide information about risky customers, and reduce monetary loss for the insurance industry. | • Blockchain • Machine learning | Dhieb et al. (2020) |
Credit evaluation system | A credit evaluation system based on blockchain and deep learning network can provide reliable information about transactions and credit evaluation of traders. | • Blockchain • Deep neural network | Mao et al. (2018) | ||
Financial portfolio optimization | Blockchain and neural network together helps in audit and secure settlement process, whereas deep reinforcement learning can enhance management and optimization of financial portfolio. | • Blockchain • Convolutional neural network • Deep reinforcement learning | Soleymani and Paquet (2020) | ||
FinBrain | Integration of technologies like AI, big data, blockchain technology, and cloud computing with finance can lead to automated and secure financial transactions. | • AI • Cloud computing • Blockchain • Big data | Zheng et al. (2019) | ||
Preventing corporate frauds | Integration of AI, blockchain, and smart contract can overcome the deficiencies of auditing and financial reporting and prevent corporate frauds caused by the failure of the auditor. | • Blockchain • IoT • Machine learning • Smart contract | Roszkowska (2020) | ||
3 | Healthcare | COVID-19 safe clinical practice | A generalizable predictive system that can contribute to controlling the pandemic risk and thus safeguarding both economic and public health. | • Blockchain • Machine learning | Fusco et al. (2020) |
GuardHealth | A data privacy preserving and sharing system that is based on a consortium of blockchain, smart contract, and a trust model implemented through graph neural network. | • Blockchain • Graph neural network • Smart contract | Wang et al. (2020) | ||
Hospital consolidation | A decentralized patient assignment system based on blockchain technology, machine learning, and integer programming that can enable healthcare providers to perform shared decision making by accessing the data about patients and collaborate with each other. | • Blockchain • Integer programming • Machine learning | Badré et al. (2020) | ||
Health data repository | A predictive model based on a machine learning classifier to help patients make data storage decisions in different types of blockchain-based data repository. | • Blockchain • Machine learning | Uddin et al. (2020) | ||
4 | Intellectual property right (IPR) | IPR management | AI and blockchain can be used to manage the IPR lifecycle, wherein blockchain-based solutions can be used for notarization of IPR assets, whereas machine learning-based data processing pipeline can be used to compare the IPR assets among competitors. | • Blockchain • Machine learning | Ragot et al. (2020) |
IPR management system | New IPR can be registered on a blockchain platform that can empower eligible stakeholders to use IPR data from the blockchain network, wherein text mining can help to identify the type of IPR for retrieval. | • Blockchain • Text mining, clustering, and classification | Alnafrah et al. (2019) | ||
5 | Management | Corporate online dispute resolution system | AI and blockchain integration can help parties of dispute to discover their own best/worst alternative to a negotiated agreement. | • AI • Blockchain | Barnett and Treleaven (2018) |
Corporate governance | AI can reduce reliance on humans for decision making in corporations, whereas blockchain can reduce the cost of voting and trade clearance by promoting direct shareholder requirement. | • AI • Blockchain • Distributed ledger | Bruner (2020) | ||
6 | Marketing | Customer satisfaction | A blockchain-based evaluation technique that can be used to provide a secure platform and that can predict customer satisfaction through the Long Short-Term Memory (LSTM) machine learning algorithm. | • Blockchain • Machine learning | Tian et al. (2020) |
Customer service | An open and automated customer service platform based on blockchain, IoT, and machine learning can enable small companies that do not have sufficient experience and data to automate their customer services without relying on third parties. | • Blockchain • IoT • Machine learning | Li et al. (2019) | ||
7 | Smart manufacturing | Cyber production system | A blockchain-enabled cyber production system can solve the problems of existing manufacturing practices when integrated with AI tools. | • AI • Blockchain | Lee et al. (2019) |
PriModChain | PriModChain integrates ethereum blockchains, federated machine learning, differential privacy, and smart contracts to improve the reliability and trustworthiness of IIoT data. | • Differential privacy • Ethereum blockchain • Federated machine learning • Smart contract | Arachchige et al. (2020) | ||
Production capability evaluation system | A production capability evaluation system based on blockchain, IoT, and machine learning can help to improve production efficiency. | • Blockchain • IoT • Machine learning | Li et al. (2019) | ||
8 | Social media | Controlling spread of false social media messages | Blockchain’s proof of work consensus algorithm can be used to reduce the spread of false information through social media, whereas parallel-dot-custom classifier of machine learning can be used to segregate the social media messages such as tweets as political and non-political. | • Blockchain • Machine learning. | Alagu Vignesh and Harini (2019) |
Secure instant messaging | A blockchain-based instant messaging scheme designed on Linux platform can be used to secure instant messaging, wherein machine learning algorithms detect anomaly in instant messaging by monitoring the activities on blockchain. | • Blockchain • Linux • Machine learning | Yi (2019) | ||
9 | Supply chain | Humanitarian supply chain | A framework integrating AI, blockchain, and 3D printing can improve the flow of products, information, and financial resources for humanitarian purposes. | • AI • Blockchain • Smart contract • 3D printing | Rodríguez-Espíndola et al. (2020) |
Smart farming | A platform based on the application of AI, blockchain, edge computing, and IoT can monitor the state of inventory in real time and ensure the traceability in the production process. | • AI • Blockchain • Edge computing • IoT | Alonso et al. (2020) | ||
Vaccine blockchain system | An intelligent system based on blockchain and machine learning can address the problem of vaccine record fraud and vaccine expiration in supply chains. | • Blockchain • Machine learning • Smart contract | Yong et al. (2020) | ||
10 | Transportation | Automation in airports | AI and blockchain enable airports to know their passengers’ preferences and to meet the need of the travelers in a better way. | • Blockchain • Predictive analytics | Mayer (2019) |
Railway asset management | Blockchain and big data analytics can be used for railways asset condition management. | • Descriptive analytics • Diagnostic analytics • Predictive analytics • Prescriptive analytics | McMahon et al. (2020) |
4 Conclusion
Cluster | Future research question |
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All clusters | • What business activities and processes would benefit from AI and blockchain technologies, and to what extent would the integration of these technologies be of value to small, medium, and large enterprises? |
• What are the human characteristics and capabilities that nurture or prevent the effective implementation of integrated AI and blockchain innovations? | |
• How can AI and blockchain integrated applications be diffused in ways that encourage adoption and that mitigate resistance? | |
• What are the fundamental and value adding competencies and skills required to develop, implement, and manage AI and blockchain integrated systems, and how can human capital be reskilled or upskilled in order to meet these requirements? | |
• How can the information or solutions generated from AI and blockchain integration impact into or inform managerial decisions, and what differences would explicit, implicit, intentional, and unintentional information or solutions produce? | |
• What are the ethical issues and privacy rights that could transpire from AI and blockchain integration in business, and how can they be resolved? | |
• What metrics can be used for business to monitor and manage the effectiveness of AI and blockchain integrated solutions? | |
• How can business professionals and integrated technologies involving AI and blockchain co-exist and work together to create a better world? | |
Cluster 1: IR 4.0 and supply chains | • How can AI and blockchain integration be applied to curate and improve sustainable supply chains? |
• What is the impact of AI and blockchain integration on supply chain performance and relationships? | |
• What is the impact of AI and blockchain integration in supply chains on economic, environmental, and social sustainability? | |
Cluster 2: Smart healthcare | • How can AI and blockchain integration be applied in omnichannel healthcare? |
• How can AI and blockchain integration be applied to manage economic and public health? | |
• What is the impact of AI and blockchain integration in healthcare on economic and public health? | |
Cluster 3: Secure transactions | • How can AI and blockchain integrated systems be immunized against offline and cyber fraud? |
• What are the enablers and barriers to adopt AI and blockchain integration for secure transactions, how can the enablers be activated, and how can the barriers be mitigated? | |
Cluster 4: Finance and accounting | • How can AI and blockchain integrated systems be immunized against creative accounting? |
• What is the impact of AI and blockchain integration on revenue generation, and how can they be harmonized for cross-border financial transactions? |