Tag: cybersecurity

  • The Future of Voting: Can Digital Democracy Make Elections More Accessible—and More Secure?

    The Future of Voting: Can Digital Democracy Make Elections More Accessible—and More Secure?

    From Internet Voting to Blockchain, Technology Could Transform Elections—but Democracy Requires More Than Technological Efficiency

    Imagine an election with no polling station.

    There is no line to wait in, no paper ballot to mark, and perhaps no need even to leave home.

    You authenticate your identity on a secure device, select a candidate, submit your vote, and receive confirmation that your ballot has been recorded.

    For citizens living abroad, people with mobility difficulties, or voters far from polling places, the attraction is obvious.

    If we can conduct banking, medical appointments, education, and government services online, why shouldn’t we also be able to vote online?

    This question lies at the center of an emerging debate about digital democracy.

    Internet voting and blockchain-based voting have been proposed as ways to make elections more accessible, efficient, transparent, and verifiable.

    But voting is unlike most online transactions.

    If someone steals money from a bank account, the transaction can potentially be identified and reversed.

    A democratic election must satisfy several requirements simultaneously: the voter must be authenticated, the ballot must remain secret, the vote must be recorded correctly, and the final result must be verifiable—all without creating evidence that allows someone to prove how they voted.

    That makes digital voting an extraordinarily difficult technological and democratic problem.

    The central question is therefore not simply:

    Can we build a digital voting system?

    It is:

    Can we build one that citizens have good reason to trust?


    1. What Is Digital Voting—and Where Does Blockchain Fit In?

    The terms electronic voting, internet voting, and blockchain voting are often used as though they mean the same thing.

    They do not.

    Electronic voting is the broadest category. It can include voting machines located inside supervised polling places.

    Internet voting allows voters to submit ballots remotely through an online system.

    Blockchain voting is a more specific proposal in which distributed-ledger technology is used for some part of recording or verifying election data.

    The appeal of blockchain is understandable.

    Because distributed ledgers are designed to make recorded transactions difficult to alter without detection, advocates have suggested that similar technology could strengthen the integrity or auditability of digital ballots.

    But there is an important distinction:

    protecting a record after it enters a system is not the same as protecting the entire voting process.

    What happens if malware changes a voter’s selection before it reaches the blockchain?

    How do we know that the person using the device is really the voter?

    How do we preserve ballot secrecy?

    What happens if an attacker prevents thousands of voters from connecting?

    How can an ordinary citizen verify a highly technical system?

    The National Academies of Sciences, Engineering, and Medicine has emphasized that putting ballots on a blockchain does not eliminate the vulnerabilities associated with internet voting. Electronic ballots remain dependent on software, devices, networks, and cybersecurity protections.

    Blockchain may therefore become one component of future election technology.

    But it should not be confused with a complete solution to election security.


    2. Why Is Estonia Important to the Future of Online Voting?

    Estonia provides one of the world’s most important real-world examples of nationwide internet voting.

    But an important misconception should be corrected.

    Estonia’s national internet voting system is not simply a blockchain voting system.

    Its official election documentation describes a system using digital identification, encryption, digital signatures, verification mechanisms, and cryptographic key management. Voters can cast ballots online and can verify through a separate application that their vote was received correctly.

    Estonia also provides an interesting democratic safeguard.

    A voter can change an internet vote during the voting period, and a subsequent paper ballot cast at a polling place can override the electronic vote.

    This illustrates an important principle.

    Successful digital democracy depends on much more than one technology.

    It requires digital identity infrastructure, election administration, cybersecurity, legal safeguards, public institutions, voter education, and—perhaps most importantly—institutional trust.

    Estonia therefore teaches us something more interesting than “blockchain can make elections secure.”

    It shows that digital voting is an institutional system, not merely a technological product.


    3. Could Online Voting Make Democracy More Accessible?

    The strongest argument for digital voting may not be blockchain at all.

    It may be access.

    Voting can be difficult for citizens living abroad, people with certain disabilities, individuals living far from polling places, and people whose work or personal circumstances make attending a polling station difficult.

    Remote voting could reduce some of these barriers.

    Convenience might also encourage participation among citizens accustomed to conducting much of their lives digitally.

    But we should be careful about assuming that convenience automatically increases democratic participation.

    People abstain from elections for many reasons.

    Some lack political interest.

    Some distrust institutions.

    Some believe their vote will not matter.

    Others feel poorly represented by available candidates.

    Technology cannot solve all of these problems.

    Making voting easier can remove practical barriers.

    It cannot by itself create political trust or civic engagement.

    This distinction matters because digital democracy should not be measured simply by how quickly a vote can be cast.

    A democracy becomes stronger when citizens have a meaningful and equal opportunity to participate.


    4. Could Digital Voting Create a New Form of Voting Inequality?

    Here lies one of the greatest contradictions of digital democracy.

    A technology designed to increase access could exclude some citizens.

    Reliable internet access is not universal.

    Neither is digital literacy.

    People differ in their ability to use smartphones, computers, authentication systems, passwords, digital certificates, and security applications.

    Age is one factor, but it is not the only one.

    Income, education, disability, infrastructure, language, and previous exposure to technology can all affect digital participation.

    If voting increasingly depends on technological competence, an old democratic inequality could take a new form.

    Historically, voting rights debates asked:

    Who is legally allowed to vote?

    Digital democracy adds another question:

    Who can actually use the system through which voting takes place?

    This distinction is fundamental.

    A right that formally belongs to everyone may not be an equal right in practice if exercising it requires resources or skills that are unequally distributed.

    For this reason, digital voting should not automatically mean the disappearance of traditional voting methods.

    Maintaining accessible alternatives may itself become a democratic safeguard.


    5. Is Online Voting Secure Enough for National Elections?

    This is where optimism about digital voting encounters its hardest challenge.

    Remote internet voting creates risks that do not disappear simply because the central election system is well designed.

    A voter’s personal computer or smartphone can be compromised.

    Communication networks can be attacked.

    Authentication credentials can be stolen.

    Systems can face denial-of-service attacks.

    And unlike an attack on one physical ballot, a successful cyberattack can potentially affect large numbers of voters very quickly.

    U.S. cybersecurity guidance has characterized electronic ballot return as high risk, particularly because attacks can potentially affect ballot integrity, voter privacy, and system availability at scale.

    There is another democratic problem.

    Elections do not merely have to be secure.

    Citizens must be able to trust that they are secure.

    Imagine an election decided by 0.2 percent of the vote.

    One candidate claims that malicious software altered thousands of digital ballots.

    Election authorities respond that cryptographic verification proves the result is correct.

    How many citizens can independently understand the proof?

    This creates what might be called a trust paradox.

    A technologically sophisticated election system may be highly secure in some respects while becoming more difficult for ordinary citizens to understand.

    Democratic legitimacy therefore requires not only technical security but publicly comprehensible verification and accountability.


    6. What Can We Learn From Switzerland’s Cautious Approach?

    Switzerland provides another useful example—but again, the original 2024 description needs updating.

    Switzerland has conducted hundreds of e-voting trials rather than simply adopting blockchain voting nationwide. Its official policy follows the principle of “security before speed.”

    As of 2026, several cantons are conducting limited e-voting trials using the Swiss Post system with complete verifiability. The systems are subject to independent examination, publication requirements, public scrutiny, and a permanent bug-bounty process.

    In June 2026, Switzerland also authorized Lucerne to resume limited e-voting trials, with the authorization extending to a restricted electorate rather than the entire population.

    The Swiss example therefore offers an important lesson.

    Technological innovation in elections does not have to follow the Silicon Valley model of:

    launch first, improve later.

    Elections are different.

    If a social-media application fails, users may be inconvenienced.

    If an election system fails, political legitimacy itself can be damaged.

    For democratic infrastructure, caution may not represent resistance to innovation.

    It may represent responsible innovation.


    7. Is the Future of Voting Really About Blockchain?

    Probably not.

    At least, not primarily.

    Blockchain attracts attention because it offers an appealing technological story: decentralization, transparency, immutability, and resistance to manipulation.

    But democratic elections require much more.

    Democratic elections require much more than secure technology. They must ensure equal access, ballot secrecy, reliable verification, and public trust.

    These principles depend not only on software but also on strong institutions, effective cybersecurity, transparent auditing, and public accountability.

    No single technology can guarantee all of these simultaneously.

    The National Academies has argued that no known technology currently guarantees the secrecy, security, and verifiability necessary for returning marked ballots over the internet and has emphasized the continuing importance of human-readable paper records and auditing.

    This does not mean digital voting will never become sufficiently trustworthy.

    Cryptographic methods, end-to-end verifiability, digital identity systems, cybersecurity, and auditing techniques will continue to develop.

    But the future of voting should not be determined by asking:

    What is the newest technology available?

    The better question is:

    What combination of technologies and institutions best protects democratic rights?


    Conclusion: Voting Is a Right Before It Is a Technology

    Digital voting could make elections easier for millions of people.

    It could help citizens living abroad.

    It could improve accessibility for some voters with disabilities.

    It might eventually provide new methods of verification and make election administration more efficient.

    These possibilities deserve serious exploration.

    But voting is fundamentally different from online shopping, banking, or social media.

    A vote is an exercise of political equality.

    From the perspective of citizenship education, that distinction is crucial.

    The purpose of an election system is not simply to process the greatest number of ballots at the lowest cost or highest speed.

    It is to ensure that each citizen can participate equally, privately, securely, and with justified confidence that every legitimate vote will be counted correctly.

    That is why the digital divide is not merely a technology problem when it affects elections.

    It becomes a voting-rights problem.

    And cybersecurity is not merely an engineering problem.

    It becomes a democratic legitimacy problem.

    The future may well include more digital forms of voting. Estonia demonstrates that nationwide internet voting is possible under particular institutional conditions, while Switzerland demonstrates the value of gradual experimentation and rigorous scrutiny.

    But perhaps the greatest mistake would be to believe that making voting more technologically advanced automatically makes democracy more advanced.

    The ultimate standard should remain much older and simpler:

    Does the system allow every citizen to exercise an equal vote—and give citizens good reason to trust the result?

    Reader Question

    Online voting could make elections more convenient and accessible, but even a technically sophisticated system may create new risks to security, equality, and public trust.

    Would you feel comfortable casting your vote online in a national election—or would you still trust a paper ballot more?

    Related Reading

    Making voting available online does not mean that everyone can participate on equal terms. Access to devices, confidence with digital tools, and the availability of support can shape who benefits—and who struggles to take part. In The Digital Generation Gap: Is Technology Bringing Generations Together—or Driving Them Apart?, we examine how technological change affects different generations and why digital inclusion requires more than providing access to technology.

    References

    1. National Academies of Sciences, Engineering, and Medicine. (2018). Securing the Vote: Protecting American Democracy. The National Academies Press.

    This major report examines the security and integrity of election technologies, including internet voting. It emphasizes that blockchain does not eliminate the fundamental security risks of transmitting marked ballots over the internet and highlights the importance of auditable, human-readable records in trustworthy elections.

    2. Estonian National Electoral Committee. (n.d.). Internet Voting in Estonia.

    Estonia provides one of the world’s most important examples of nationwide internet voting. Its system relies on digital identification, encryption, digital signatures, verification procedures, and institutional safeguards, demonstrating that successful digital voting depends on an entire technological and administrative ecosystem rather than blockchain alone.

    3. Swiss Federal Chancellery. (2026). E-Voting.

    Switzerland has pursued e-voting through controlled trials, independent examination, verifiability requirements, and gradual authorization rather than immediate nationwide implementation. Its “security before speed” approach illustrates how democratic institutions can experiment with digital voting while treating election integrity and public trust as higher priorities than rapid technological adoption.

    4. Cybersecurity and Infrastructure Security Agency. (2020). Risk Management for Electronic Ballot Delivery, Marking, and Return.

    This guidance examines cybersecurity risks associated with electronic ballot systems, particularly remote electronic ballot return. It is relevant to the article’s discussion of compromised personal devices, network attacks, ballot secrecy, system availability, and the potentially large-scale consequences of cyberattacks on elections.

    5. Council of Europe. (2017). Recommendation CM/Rec(2017)5 of the Committee of Ministers to Member States on Standards for E-Voting.

    The Council of Europe sets out principles for electronic voting that connect technological design with universal suffrage, equal voting rights, free elections, secrecy, transparency, accountability, and reliability. It reinforces the article’s central argument that digital voting must be evaluated according to democratic standards, not technological efficiency alone.

  • Is the AI Arms Race the Beginning of a New Cold War?

    Is the AI Arms Race the Beginning of a New Cold War?

    How Autonomous Weapons and Military AI Could Reshape the Global Order

    Artificial intelligence is no longer limited to chatbots, recommendation systems, or virtual assistants. Around the world, governments are increasingly integrating AI into military strategy, surveillance systems, cyber operations, and autonomous weapons. What once belonged to science fiction is now becoming part of modern geopolitical reality.

    During the 20th century, global superpowers competed through nuclear weapons and industrial military power. Today, however, many analysts believe that a new kind of arms race has already begun—one centered on algorithms, data, and machine intelligence. The countries that dominate military AI may gain enormous advantages not only on the battlefield, but also in cybersecurity, information warfare, and global influence.

    This growing competition has led to an unsettling question:

    Could the AI arms race become the foundation of a new Cold War?


    1. The Global Competition for Military AI

    The United States and Algorithmic Warfare

    The United States is investing heavily in the development and military application of artificial intelligence. The U.S. Department of Defense has invested heavily in autonomous drones, AI-assisted surveillance systems, and battlefield automation technologies. Military planners increasingly view artificial intelligence as essential to maintaining strategic superiority in future conflicts.

    American defense programs are also exploring “loyal wingman” systems, in which autonomous aircraft assist human pilots during combat operations. Rather than replacing soldiers entirely, these systems are designed to enhance military speed, coordination, and decision-making. In this vision of warfare, humans and machines operate together as integrated combat units.

    At the same time, major American technology companies such as Google, Microsoft, and Palantir Technologies are increasingly connected to national security projects. This relationship between governments and private technology firms represents a major shift in how military power is developed in the digital age.


    China’s Military-Civil Fusion Strategy

    China has rapidly expanded its investment in military AI through its “Military-Civil Fusion” strategy. Under this approach, civilian technological innovation is directly connected to national defense development. China has increasingly treated artificial intelligence as both a technological priority and an important component of national and military strategy.

    Chinese researchers and defense planners are investing heavily in autonomous drones, facial recognition systems, cyber warfare capabilities, and AI-driven information operations. Unlike traditional military competition, AI warfare depends strongly on access to data, computational infrastructure, and digital surveillance networks. As a result, China’s technological expansion is closely tied to both domestic control and international influence.

    Many analysts believe that the competition between the United States and China in artificial intelligence could shape the global balance of power for decades to come.


    Russia and Autonomous Combat Systems

    Russia has also accelerated the development of autonomous military systems. Russian defense projects include robotic combat vehicles, AI-supported electronic warfare systems, and autonomous battlefield technologies designed to reduce reliance on conventional troop deployment.

    One of the most widely discussed examples is the Uran-9 robotic combat platform, which was tested in conflict environments as part of Russia’s broader military modernization efforts. Russia has also emphasized AI-enhanced cyber warfare and digital disruption strategies, viewing artificial intelligence as a way to compete asymmetrically with technologically dominant rivals.

    This demonstrates that AI competition is not simply about creating smarter weapons. It is increasingly about reshaping the very structure of military and geopolitical power.


    2. How AI Warfare Differs from Traditional Arms Races

    Speed, Automation, and Real-Time Decision Making

    Traditional warfare has always depended heavily on human decision-making. Even advanced military systems required human operators to analyze information, evaluate risks, and authorize attacks.

    AI warfare changes this dramatically.

    Artificial intelligence systems can process enormous amounts of data in real time, identify patterns, predict threats, and respond faster than humans. Autonomous systems may eventually make battlefield decisions within seconds, leaving little time for political leaders or military commanders to intervene.

    This acceleration creates a dangerous possibility: wars may unfold too quickly for humans to fully control them.


    Data as the New Strategic Resource

    In previous centuries, military power depended largely on industrial production, troop numbers, and access to physical resources. In the AI era, however, strategic advantage increasingly depends on data and computational capability.

    Countries with stronger AI ecosystems may gain advantages not only in warfare, but also in intelligence gathering, cybersecurity, and economic influence. This is why many governments now consider artificial intelligence to be as strategically important as oil, nuclear technology, or space exploration.

    Military power in the future may therefore depend less on the size of armies and more on the quality of algorithms.


    Cyber Warfare and Information Manipulation

    AI warfare extends far beyond physical battlefields. Artificial intelligence can also be used to manipulate public opinion, spread misinformation, and destabilize societies through digital influence operations.

    Deepfakes, AI-generated propaganda, and automated disinformation campaigns may become powerful geopolitical weapons. Instead of targeting only military infrastructure, future conflicts could increasingly target trust itself.

    This shift blurs the line between war, politics, media, and technology. In the AI era, information may become one of the most important battlefields of all.


    3. Autonomous Weapons and the Ethics of AI Warfare

    Drone Warfare Has Already Changed Modern Conflict

    AI-assisted drones are already transforming warfare. Conflicts including the 2020 Nagorno-Karabakh war and the Russia–Ukraine war have demonstrated the growing importance of unmanned systems in modern military operations.

    Compared to traditional military systems, drones are often cheaper, faster, and more flexible. Governments can deploy them without risking large numbers of soldiers, which may reduce the political cost of military intervention.

    However, this also creates a troubling possibility. If war becomes technologically easier and politically less costly, governments may become more willing to engage in military conflict.


    The Problem of Moral Responsibility

    One of the most difficult questions surrounding AI weapons concerns ethics and accountability.

    Artificial intelligence systems can identify targets through data analysis, but they do not possess empathy, conscience, or moral judgment. They cannot truly understand the human consequences of violence.

    This raises serious concerns:

    Can autonomous systems reliably distinguish civilians from combatants?
    Who is responsible if an AI weapon makes a deadly mistake?
    Should machines ever be allowed to make life-and-death decisions independently?

    International concern over autonomous weapons has intensified. The United Nations has increasingly addressed lethal autonomous weapon systems as an issue of international peace and security, while the International Committee of the Red Cross has called for legally binding rules that preserve meaningful human control over the use of force. Yet governments still disagree over the form and scope of such regulation, even as military applications of artificial intelligence continue to develop rapidly.


    4. Could AI Make War More Common?

    Paradoxically, AI weapons could reduce the barriers to war rather than eliminate conflict altogether.

    Because autonomous systems reduce direct human casualties for the attacking side, political leaders may feel less domestic pressure when considering military action. Remote warfare may appear cleaner, safer, and more efficient—even though its long-term consequences remain unpredictable.

    Some experts therefore fear that AI could normalize continuous low-level conflict. Instead of massive world wars between large armies, future warfare may become more decentralized, automated, and persistent.

    This possibility represents one of the greatest geopolitical risks of the AI era.


    Conclusion: Humanity at a Technological Crossroads

    Artificial intelligence is rapidly transforming the meaning of military power. AI systems may improve precision, accelerate intelligence analysis, and reduce certain forms of battlefield risk. Supporters argue that advanced technologies could potentially reduce human casualties and create more efficient defense systems.

    At the same time, however, the dangers are profound. Autonomous weapons could intensify geopolitical rivalry, destabilize cybersecurity systems, and create conflicts that unfold faster than humans can meaningfully control. If military AI becomes concentrated in the hands of a few powerful nations or corporations, global inequality and political instability may deepen even further.

    The challenge of the AI age is therefore not purely technological. It is ethical, political, and deeply human.

    Humanity must now decide whether artificial intelligence will become merely another instrument of domination—or whether international cooperation can establish meaningful limits before autonomous warfare reshapes global order beyond human control.

    The future of AI warfare may ultimately determine not only how wars are fought, but also whether humans remain genuinely responsible for them at all.

    Reader Question

    If artificial intelligence eventually becomes capable of making military decisions faster and more efficiently than humans—

    Should humanity allow machines to control warfare?

    Or must moral responsibility always remain in human hands, even in an age of autonomous weapons?

    Related Reading

    If future warfare increasingly depends on technology rather than human soldiers, could automation eventually reshape the structure of labor, power, and society itself?
    In Will Hyper-Personalization Reshape the Future of Work?, we explore how AI and automation may transform economic systems, human roles, and the future of social stability.


    References

    1. Scharre, Paul. (2018). Army of None: Autonomous Weapons and the Future of War. W. W. Norton & Company.

    Scharre examines the development of autonomous weapons and the growing role of artificial intelligence in military decision-making. Drawing on military technology, strategy, and ethics, the book is particularly useful for understanding why meaningful human control and accountability remain central questions as weapons become increasingly autonomous.

    2. Russell, Stuart. (2019). Human Compatible: Artificial Intelligence and the Problem of Control. Viking.

    Russell explores one of the central challenges of advanced artificial intelligence: how humans can retain meaningful control over increasingly capable autonomous systems. Although the book addresses AI more broadly than military technology, its analysis provides an important framework for understanding the risks of delegating consequential decisions—including life-and-death decisions—to machines.

    3. United Nations Secretary-General. (2024). Lethal Autonomous Weapons Systems: Report of the Secretary-General (A/79/88). United Nations.

    This report brings together the views of governments, international organizations, the International Committee of the Red Cross, civil society, and other stakeholders on lethal autonomous weapons systems. It highlights concerns about human control, accountability, international humanitarian law, security, and the risks created when increasingly autonomous technologies are used in armed conflict. UN report on Lethal Autonomous Weapons Systems

    4. United Nations General Assembly. (2024). Lethal Autonomous Weapons Systems (A/RES/79/62). United Nations.

    This General Assembly resolution reflects growing international concern about the implications of autonomous weapons for global security, humanitarian law, and human responsibility. It demonstrates that the governance of military AI is no longer only a technological or ethical debate, but an emerging issue on the international political agenda. UN General Assembly Resolution A/RES/79/62

    5. International Committee of the Red Cross. (2021). ICRC Position on Autonomous Weapon Systems. International Committee of the Red Cross.

    The ICRC argues that autonomous weapon systems require new legally binding international rules to preserve human control over the use of force. Its position is especially relevant to questions of predictability, civilian protection, legal responsibility, and whether machines should ever be permitted to select and engage human targets without sufficient human judgment. ICRC position on autonomous weapons

  • Will Quantum Computing Define the Next Global Superpower?

    Will Quantum Computing Define the Next Global Superpower?

    How Quantum Technology Could Reshape Geopolitics, Cybersecurity, and the Future Balance of Power

    Throughout history, technological revolutions have repeatedly transformed global power.

    The Industrial Revolution reshaped empires through manufacturing and energy.
    The internet revolution redefined communication, finance, and information warfare.

    Now, another technological race is rapidly emerging:

    Quantum computing.

    Unlike traditional computers, sufficiently advanced quantum computers could eventually solve certain specialized problems that are extraordinarily difficult for even the most powerful classical computers.

    Because of this potential, quantum technology is no longer viewed as merely scientific research.

    It is increasingly becoming:

    • a geopolitical asset
    • a potential challenge to existing cryptographic protection
    • an economic advantage
    • and potentially a source of strategic influence in the future

    As the United States, China, and European Union intensify their quantum ambitions, a critical question emerges:

    Could quantum computing become the defining technology of the next global power struggle?


    1. The Global Quantum Race Has Already Begun

    The United States and Corporate Quantum Leadership

    The United States remains one of the global leaders in quantum computing research.

    Major technology companies such as:

    • Google
    • IBM
    • and Microsoft

    are investing heavily in quantum technologies.

    In 2019, Google announced what it called “quantum supremacy,” reporting that its quantum processor had completed a highly specialized computational task far faster than the classical systems used for comparison at the time.

    IBM has developed increasingly advanced quantum processors and now offers cloud-based quantum computing access to researchers worldwide.

    Microsoft continues exploring topological quantum computing, focusing on building more stable and scalable quantum systems.

    In the United States, quantum development is deeply connected not only to scientific innovation—
    but also to economic and strategic dominance.

    Quantum development in the United States is also supported by a broader national strategy. Through the National Quantum Initiative, federal agencies coordinate research in quantum computing, networking, sensing, and workforce development, reflecting the growing view that quantum technology is important not only for scientific leadership but also for economic competitiveness and national security.


    China’s State-Driven Quantum Expansion

    China has rapidly emerged as a major quantum power through strong government-led investment.

    Researchers at the University of Science and Technology of China developed the photonic quantum computer “Jiuzhang,” demonstrating extraordinary computational speed in specialized tasks.

    China is also advancing quantum communication technologies.

    Its Micius satellite has been used to demonstrate quantum communication technologies, including experiments involving quantum key distribution over long distances.

    These examples show why a simple contrast between an American corporate model and a Chinese state model is incomplete. Quantum development involves relationships among governments, universities, and companies, and the balance differs across countries.


    Europe’s Quantum Strategy

    The European Union launched the Quantum Technologies Flagship in 2018. The European Commission describes it as a ten-year initiative with an expected EU budget of €1 billion, supporting research in quantum computing, communication, sensing, and simulation.

    The Flagship brings together research institutions, industry, and public funders. It is one component of Europe’s wider quantum effort, rather than a measure of all European investment.

    This distinction matters when comparing national strategies: funding for one research program should not be treated as directly comparable to another country’s total public and private investment.


    2. Could Quantum Technology Create a New Cold War?

    Cryptographic Risk Is Real—but It Has a Specific Scope

    A sufficiently capable quantum computer could threaten widely used public-key cryptographic systems, including RSA and elliptic-curve cryptography. This does not mean that quantum computers would automatically defeat every form of encryption or gain access to every protected system.

    In 2024, the U.S. National Institute of Standards and Technology finalized its first three post-quantum cryptography standards. These are designed for use on conventional computing systems; organizations do not need quantum computers to adopt them.

    One reason to prepare early is the risk of “harvest now, decrypt later”: an attacker may collect encrypted information today in the hope of decrypting it with future capabilities. Information that must remain confidential for many years deserves particular attention.

    Research Leadership Is Not Automatic Strategic Dominance

    The geopolitical consequences would depend on more than which country announces a breakthrough first. They would also depend on the capability and reliability of the system, the value of the information exposed, and whether potential targets had already migrated to suitable protection.

    Quantum communication and post-quantum cryptography should also be distinguished. The former uses quantum physical processes; the latter develops cryptographic methods intended to resist quantum attacks on conventional networks. Neither removes every security risk.

    Calling this competition a “new Cold War” can highlight rivalry, but it can also obscure important differences. Quantum development involves commercial competition, scientific collaboration, standards, and several technological fields—not a single weapon or a single finish line.

    My assessment is that preparedness matters alongside research leadership. A country that protects its infrastructure and develops the skills to use new technologies may strengthen its position without being the first to build the most powerful machine.


    3. The Risk of Quantum Inequality

    Technological Gaps Between Nations

    Quantum computing could dramatically widen global inequality.

    Countries with advanced quantum infrastructure may dominate:

    • medicine
    • climate modeling
    • finance
    • logistics
    • artificial intelligence
    • and military systems

    Meanwhile, nations lacking access to quantum technologies could become increasingly dependent on technologically dominant powers.

    This may create a new form of digital hierarchy in the global economy.


    Corporate Monopoly and Technological Concentration

    Another concern involves corporate concentration.

    Today, a small number of large technology corporations already dominate much of the digital world.

    If quantum computing becomes controlled by only a few companies, technological inequality may deepen further.

    Smaller businesses and developing nations could struggle to compete in a quantum-driven economy.

    This raises difficult questions about:

    • technological fairness
    • access to innovation
    • and the concentration of computational power

    The future quantum economy may therefore become not only a scientific issue—

    But also a political and ethical one.


    Conclusion: Quantum Leadership Is One Part of Power

    Quantum computing could become an important source of scientific and strategic advantage. It does not follow that the country with the strongest quantum processor would automatically become the next global superpower.

    The applications discussed above are possibilities to evaluate, not benefits that every quantum system can already deliver. Research achievements must become reliable and useful capabilities before they can produce substantial economic or strategic gains.

    I would judge a country’s quantum position through three questions: can it turn research into useful applications, protect important systems during the cryptographic transition, and develop the people and institutions needed to sustain progress?

    Fair access matters as well. If skills, infrastructure, and opportunities remain concentrated, the benefits may be distributed unevenly. But that outcome is not inevitable; it depends partly on choices about education, research access, competition, and cooperation.

    Quantum computing may reshape the balance of power. It is unlikely to determine that balance on its own. The more useful question is how societies can prepare for its risks and share its benefits without treating technological leadership as an entitlement to dominate others.

    Reader Question

    If quantum computing gives a few nations or corporations overwhelming technological power—

    Could the future of global politics become less about military strength,
    and more about computational dominance?

    Or should quantum technology be treated as a shared global resource rather than a strategic weapon?

    Related Reading

    If future technologies increasingly reshape global power structures, could national sovereignty itself become more flexible and unstable in the digital age?
    In Is National Sovereignty Absolute?, we explore how technological competition and global cooperation continuously challenge traditional ideas of political power and international order.


    References

    1. National Academies of Sciences, Engineering, and Medicine. (2019). Quantum Computing: Progress and Prospects. Washington, DC: The National Academies Press.

    This authoritative report examines the scientific foundations, technological challenges, and potential applications of quantum computing. It provides an important framework for understanding both the transformative possibilities of quantum technology and the substantial technical barriers that must still be overcome before large-scale quantum computers become practical.
    National Academies — Quantum Computing: Progress and Prospects

    2. National Quantum Initiative. (n.d.). The National Quantum Initiative. United States Government. Accessed October 9, 2026.

    The National Quantum Initiative coordinates U.S. federal efforts in quantum information science and technology, including research, infrastructure, workforce development, and cooperation between government, universities, and industry. It demonstrates how quantum technology has become connected not only to scientific leadership but also to economic competitiveness and national security.
    U.S. National Quantum Initiative

    3. National Institute of Standards and Technology. (2024). Post-Quantum Cryptography Standards: FIPS 203, FIPS 204, and FIPS 205. U.S. Department of Commerce.

    In 2024, NIST finalized its first three post-quantum cryptography standards to protect digital information against attacks from future quantum computers. These standards show that the cybersecurity implications of quantum computing are no longer merely theoretical: governments and organizations are already preparing existing digital infrastructure for a post-quantum security environment.
    NIST — Post-Quantum Cryptography Standards

    4. National Institute of Standards and Technology. (2024). Transition to Post-Quantum Cryptography Standards (NIST IR 8547 Initial Public Draft). U.S. Department of Commerce.

    This draft report addresses the transition from quantum-vulnerable cryptographic systems to post-quantum standards. It is particularly relevant to the geopolitical dimension of quantum computing because the ability of governments, financial institutions, and critical infrastructure to protect information during this transition may become an important component of national security and technological resilience.
    NIST — Transition to Post-Quantum Cryptography Standards

    5. European Commission. (n.d.). Quantum Technologies Flagship. European Commission. Accessed October 9, 2026.

    The European Quantum Technologies Flagship is a long-term research and innovation initiative designed to strengthen Europe’s capabilities in quantum computing, communication, simulation, and sensing. The program illustrates how quantum technology has become a strategic priority not only for individual companies but also for governments and regional institutions seeking technological sovereignty and competitiveness in the emerging quantum economy.
    European Commission — Quantum Technologies Flagship