Blockchain as an infrastructure of responsible trust in light of Amita Kumar Tyagi's Next Generation Blockchain for Next concept

🇵🇱 Polski
Blockchain as an infrastructure of responsible trust in light of Amita Kumar Tyagi's Next Generation Blockchain for Next concept

📚 Based on

Next Generation Blockchain for Next ()
CRC Press
ISBN: 9781041026075

👤 About the Author

Amit Kumar Tyagi

National Forensic Sciences University

Dr. Amit Kumar Tyagi is an Assistant Professor at the National Forensic Sciences University in Gandhinagar, India. He earned his Ph.D. from Pondicherry Central University in 2018. Throughout his academic career, he has held positions at several institutions, including the National Institute of Fashion Technology and the Vellore Institute of Technology. Dr. Tyagi is a Senior Member of the IEEE and has an extensive research portfolio focusing on machine learning, blockchain technology, cyber-physical systems, and data privacy. He has contributed to significant research projects such as "AARIN" and "P3-Block," which address privacy issues in vehicular and medical applications. A prolific author and editor, he has published over 350 research articles and has been involved in the creation of more than 60 books. He is also a recipient of the Faculty Research Award from the Vellore Institute of Technology for three consecutive years (2020–2022).

Introduction

Blockchain technology is evolving from a phase of speculative promises toward a mature infrastructure. This article analyzes the transition from ideological messianism to a pragmatic model of responsible trust.

Readers will discover how integration with AI and IoT, along with the introduction of CBC, is reshaping the roles of the state and the citizen. The text explains why this technology must become an invisible tool for data protection rather than a new instrument of surveillance.

Blockchain: From Messianic Promises to Infrastructural Testing

Currently, blockchain is in an infrastructural testing phase, moving past the disappointments associated with speculative bubbles. To become truly useful, it must cease being a "religion" for enthusiasts and instead become the stable backbone of digital civilization.

The key lies in shifting from the dogma of total decentralization toward pragmatism. An example of this is the transition from risky tokens to systems that genuinely secure supply chains or e-government services, where utility takes precedence over manifestos.

Five Pillars of Technical Maturity in Blockchain

Mass adoption requires architectural changes: increasing scalability (Sharding, Layer-2), ensuring interoperability, and implementing quantum-resistant cryptography. A transition to energy-efficient models such as Proof of Stake is essential.

Technology alone is insufficient without legal frameworks and accountability standards. It is necessary to reconcile the immutability of records with the requirements of GDPR. Systems must incorporate clear dispute resolution procedures to stop being mere experiments for the initiated.

The Synergy of AI and IoT as the Foundation of Intelligent Infrastructure

Integration with AI, IoT, and digital twins enables real-time decision automation. In this context, blockchain guarantees data integrity while AI optimizes processes, creating a powerful tool for fields such as medicine and agriculture.

However, this brings risks: blockchain records data but cannot guarantee the truth of the sensor input (the oracle problem). There is a danger of creating an infrastructure for total surveillance. Therefore, data minimization and privacy protection within digital identity wallets are critical.

Conclusion

Blockchain can provide civilization with a necessary architecture of trust, but it cannot replace human conscience or ethics. Its success depends on whether it serves to emancipate the individual or becomes an elegant tool for control.

The true triumph of this technology will be the moment we stop bowing before the code. Instead, we will begin using it to protect what is most human within us in a world dominated by algorithmic efficiency.

📖 Glossary

Interoperacyjność semantyczna
Zdolność różnych systemów nie tylko do przesyłania danych, ale do rozumienia ich znaczenia w ten sam sposób.
Kryptografia postkwantowa
Nowoczesne metody szyfrowania odporne na ataki komputerów kwantowych, które mogłyby złamać obecne zabezpieczenia.
CBDC (Central Bank Digital Currency)
Cyfrowa wersja pieniądza emitowana przez bank centralny danego państwa, łącząca cechy gotówki i technologii cyfrowej.
Systemy permissioned
Prywatne sieci blockchain, w których dostęp do danych i walidacji mają tylko uprawnieni, znani uczestnicy.
Tokenizacja aktywów
Proces zamiany praw do realnych zasobów (np. nieruchomości, energii) na cyfrowe tokeny zapisane w blockchainie.
Sharding
Technika zwiększania wydajności sieci poprzez podział bazy danych na mniejsze, łatwiejsze do przetworzenia fragmenty.

Frequently Asked Questions

At what stage of development is blockchain technology currently, and what must happen for it to become a useful infrastructure?
Blockchain technology has already passed through the phases of revelation and disappointment, and is currently at the infrastructural testing stage. To become a useful mass infrastructure, it must first achieve scalability without losing its essence—namely, resistance to manipulation, openness, and distributed trust.
1. What specific technical and architectural changes must a blockchain undergo to become a useful infrastructure for society?
2. Blockchain must transition to a multi-layered architecture and implement universal interoperability standards and semantic bridges for the free flow of data. It is also essential to move away from energy-intensive Proof of Work in favor of sustainable models (e.g., Proof of Stake) and introduce post-quantum cryptography to ensure long-term security.
3. How does the integration of blockchain with AI, IoT, and digital twins change the functionality of this technology, and what risks does it entail?
4. The integration of blockchain with AI, IoT, and digital twins transforms the technology into complex systems where AI optimizes processes and decisions, IoT provides sensor data, and digital twins enable simulations and predictions. The main risks are the lack of transparency in AI decisions (the issue of liability for errors) and the vulnerability of IoT devices to attacks and erroneous input data.
5. Why is blockchain technology alone not enough, and what legal frameworks and accountability systems are necessary for its mass adoption?
6. Technology alone is not enough because it requires clear, global regulatory frameworks in the area of data protection (e.g., GDPR) and cryptocurrencies, as well as reconciling the cross-border nature of blockchain with territorial law. Functional regulation tailored to specific sectors is essential, along with the standardization of liability, covering error correction procedures, damage compensation, and code auditing.
7. What practical solutions and financial instruments (such as CBDCs or tokenization) are replacing the ideological vision of total decentralization?
8. Practical alternatives include hybrid systems combining public trust layers with private and consortium execution layers (e.g., Hyperledger Fabric), as well as asset tokenization, which increases liquidity and automates compliance. Additionally, Central Bank Digital Currencies (CBDCs) are being implemented, introducing payment programmability, instant settlements, and integration with smart contracts in the real economy.
9. What are the threats and necessary conditions for implementing digital identity and blockchain systems in the public sphere?
10. The main threats are the risk of creating a surveillance infrastructure, loss of privacy, and the exclusion of people without digital competencies and appropriate equipment. Necessary conditions include a wise legal and technical architecture based on data minimization, ensuring social legitimacy through trust and system reliability, and combating digital exclusion.
When does blockchain stop being merely a promise of revolution and become a truly useful tool for society and institutions?
Blockchain becomes a real tool when it ceases to be a messianic promise in favor of pragmatism and responsibility in the areas of law, standards, and cybersecurity. It is useful where there is a lack of trust, risk of manipulation, multi-party involvement, and a genuine need for auditing.
What are CBDCs and how do they change the role of the state in the context of blockchain technology?
CBDC is a digital form of public money issued by a central bank, used for payments in an electronic environment. Through it, the state ceases to be merely an external regulator and becomes the designer of a new payment infrastructure, adopting selected blockchain tools while maintaining its sovereignty.
What are the real benefits and threats associated with the introduction of Central Bank Digital Currencies (CBDC)?
The benefits of CBDCs include faster and cheaper settlements, less dependence on intermediaries, and the possibility of automating payments and benefits. Threats include the risk of a new form of state control over citizens through the programmability of money, as well as the potential loss of privacy and anonymity inherent in cash.
What are the real threats and benefits of introducing CBDCs compared to private stablecoins and traditional banking?
The benefit of CBDC is the creation of a public payment infrastructure that increases administrative efficiency and allows for the automation of benefits and taxes. The threats include high implementation costs, the risk of deposit outflow from commercial banks, and the loss of financial privacy through the state's ability to profile citizens. Compared to stablecoins, CBDCs eliminate risks associated with their reserves and the lack of issuer accountability.
Does the introduction of Central Bank Digital Currencies (CBDC) mean the end of privacy and the complete elimination of cash?
CBDCs are presented as a supplement to, rather than a replacement for, physical money, whose status as legal tender is intended to be protected. A properly designed digital currency should function alongside cash, offering, among other things, privacy for small amounts and accessibility for the digitally excluded.
How will the introduction of CBDCs and programmable money affect the functioning of the economy, healthcare, and the citizen-state relationship?
The introduction of CBDCs will enable the automation of payments in the economy (e.g., in logistics and agriculture) and streamline reimbursement settlements in healthcare; however, it carries the risk of excessive algorithmic control and rapid denial of funding for benefits. In the citizen-state relationship, this technology may increase the convenience of public services, but it poses a threat of excessive data integration and loss of privacy. It is therefore crucial to ensure the reversibility of technological power and protection against profiling and the arbitrary blocking of funds.
Is the introduction of CBDCs a step toward state independence, or rather a tool for total surveillance of citizens?
CBDCs can be both a tool for sovereignty and the accessibility of public money, as well as an infrastructure for oversight and control. The ultimate impact of this technology depends on the system's design: a solution based on open standards and privacy strengthens state resilience, whereas closed systems may lead to a new form of dependency or surveillance.
Does blockchain actually guarantee truth and trust, or is it merely a technological illusion?
Blockchain does not automatically guarantee truth because it only secures the data record, not the actual veracity of the information before it enters the system. It proposes a new architecture of trust, shifting it from a single center to a protocol and cryptography; however, without appropriate legal frameworks and standards, it may become merely a machine of illusion.
What are the ethical risks associated with implementing blockchain in cities, administration, medicine, and industry?
The main risks include the violation of individual freedom through excessive surveillance in cities, hiding the arbitrariness of administrative decisions behind code, and treating sensitive medical data as raw material for exploitation. In industry, there is a risk of so-called immutable falsehood (greenwashing), and in the area of AI, the mere recording of data does not guarantee its explainability.
How can blockchain protect humans in the face of AI development, the digitalization of agriculture, and the introduction of CBDCs?
Blockchain protects humans by supporting AI transparency (XAI), the auditability of decisions, and securing the authenticity of information sources. In agriculture, it ensures the protection of producer data against excessive dependence on platforms, and in the case of CBDCs, it can guarantee financial privacy and limits on power over transactions.
What is the ultimate role of blockchain in digital civilization, and what conditions must it meet to avoid becoming a tool of oppression?
The ultimate role of blockchain is to serve as an infrastructure of credibility and a "backbone of trust," allowing processes to be accounted for transparently and protecting humans from arbitrariness. To avoid becoming a tool of oppression, it must be designed in the spirit of Industry 5.0 with a human-centric approach, being a system that is auditable, appealable, and limited by law and ethics.

🧠 Thematic Groups

Tags: responsible trust infrastructure test blockchain scalability semantic interoperability post-quantum cryptography AI and IoT synergy digital twins asset tokenization CBDC digital identity permissioned systems multi-layered architecture auditable AI standardization of accountability Industry 5.0