Today, quantum computing is one of the most promising areas of modern science that can solve the problems which are too hard to handle for classical computers. However, a huge potential accompanied by a rapid progress in this area creates significant ethical risks, including threat of hacking existing cryptographic systems and the problem of non-transparent decisions made using quantum computing. The article highlights the need for timely ethical analysis, development of a regulatory framework, and interdisciplinary collaboration to ensure sustainable and socially acceptable technology development. Main ethical, bioethical challenges, in particular, that arise against the background of quantum computing, and identification of possible ways to regulate them captivate special attention.
Today, quantum computing is one of the most promising areas of modern science that can solve the problems which are too hard to handle for classical computers. However, a huge potential accompanied by a rapid progress in this area creates significant ethical risks, including threat of hacking existing cryptographic systems and the problem of non-transparent decisions made using quantum computing. The article highlights the need for timely ethical analysis, development of a regulatory framework, and interdisciplinary collaboration to ensure sustainable and socially acceptable technology development. Main ethical, bioethical challenges, in particular, that arise against the background of quantum computing, and identification of possible ways to regulate them captivate special attention.
Quantum computing is rapidly emerging as a transformative technological paradigm with the potential to disrupt cryptography, optimization, material science, and artificial intelligence. However, its dual-use nature introduces profound regulatory, ethical, and geopolitical challenges. This paper explores the governance landscape of quantum computing, emphasizing the need for anticipatory policy frameworks, international coordination, and responsible innovation mechanisms. It highlights risks related to cybersecurity, algorithmic inequality, and technological monopolization. The study proposes a multi-layered regulatory model integrating national strategies, global treaties, and industry self-regulation to ensure equitable and secure quantum development
Quantum computing represents a revolutionary technology capable of transforming the approach to solving complex problems that traditional computers cannot efficiently handle. This work explores the future of quantum computing by examining current achievements in the field, its potential for commercial applications, and the challenges faced by researchers and developers. Special attention is given to the prospects of utilizing quantum computers in areas such as cryptography, molecular modeling for drug development, and optimization of complex systems. The study also analyzes the potential ethical and social implications of the widespread adoption of quantum technologies, including data security issues and inequalities in access to new technologies. The research emphasizes the importance of further investigation and collaboration among government, academia, and industry to realize the full potential of quantum computing.
Abstract As quantum computing development advances closer toward achieving fault-tolerant error-corrected realisation, debates on applications, impacts, risks, and benefits of quantum computing are timely and due. While there is awareness of the potential power and complexity of quantum computers, there has been relatively little attention on the social impacts and ethical implications of this technology. In grappling with the social impacts of quantum computing, some stakeholders have turned to applied ethics, specifically (classical) computer and Artificial Intelligence (AI) ethics, for guidance. While computer and AI ethics are useful starting points for evaluating the ethical issues posed by quantum computing, uncritically applying existing sets of ethical principles risks overlooking how quantum computing differs from these technologies. We argue that borrowing of ethical principles and guidelines from AI and computing is inappropriate for several reasons: (1) quantum computing, classical computing, and AI are different technologies with significant material differences; (2) unlike AI and classical computers which have become established, quantum computing is an emerging technology, which has implications on the levels of accessibility and immediate impact in society; and (3) there are significant differences in the way AI and quantum computing have been developed and by whom. We also briefly summarise some of the unique risks and societ al impacts posed by quantum computing. We posit that these reasons support the argument for a new sub-field of quantum computing ethics, which would allow a relevant scholarship to develop and provide guidance as quantum computing technology continues to mature.
Quantum computing represents a paradigm shift in the realm of computational technologies, promising to revolutionize industries and solve complex problems that are currently intractable for classical computers. With advancements in quantum algorithms, quantum hardware, and quantum error correction, this field is progressing rapidly, although challenges remain in achieving practical, scalable quantum computers. This paper explores the current developments in quantum computing, its implications for technology and society, and the potential impacts on industries such as cryptography, artificial intelligence, and healthcare. Additionally, the study provides an outlook on the ethical, economic, and social challenges posed by the wide-scale adoption of quantum computing.
Quantum computing harnesses the fundamental principles of quantum mechanics to process information in ways that differ radically from classical computation. Although the technology has not yet achieved large-scale, fault-tolerant maturity, it already holds the promise of major scientific advances and the capacity to address problems long considered unsolvable, with potential applications spanning finance, medicine, cybersecurity, and artificial intelligence. At the same time, these transformative prospects raise significant ethical challenges related to dual-use, social equity, knowledge asymmetry, data protection and human security. The Report of the World Commission on the Ethics of Scientific Knowledge and Technology offers a comprehensive ethical framework and concrete recommendations for Member States and stakeholders, encouraging anticipatory reflection, inclusive governance, and responsible innovation to ensure that the development of quantum computing serves the common good. UNESCO Catno: 0000398114 UNESDOC landing page: https://unesdoc.unesco.org/ark:/48223/pf0000398114
The rapid advancement of quantum computing technology presents unprecedented opportunities and challenges for global governance. This comprehensive study examines the current landscape of international quantum computing regulation, exploring the delicate balance between fostering innovation and addressing security concerns. Through a mixed-methods approach, including policy analysis, expert interviews, and case studies of key countries and regions, we identify significant fragmentation in regulatory approaches, a pressing need for standardization, and ethical considerations that demand immediate attention. Our findings reveal strong stakeholder support for international cooperation, despite geopolitical tensions, and highlight the risk of a growing "quantum divide" between nations. Based on these insights, we propose a series of recommendations, including the establishment of an International Quantum Governance Forum, the adoption of a risk-based adaptive regulatory framework, and the implementation of a Global Quantum Literacy Initiative. This research contributes to the ongoing dialogue on quantum technology governance and provides a roadmap for policymakers, researchers, and industry leaders to navigate the complexities of regulating this transformative technology. By addressing these challenges proactively, we can harness the full potential of quantum computing while mitigating its risks, ultimately shaping a quantum future that benefits all of humanity.