The emergence of quantum computing has been heralded as a technological revolution, capable of transforming our world in ways we can only begin to imagine. This nascent field, leveraging the mind-bending principles of quantum mechanics, promises to revolutionise everything from medicine and materials science to artificial intelligence and climate modelling.
However, recent reports of Chinese researchers successfully breaking military-grade encryption using a quantum computer have cast a long shadow over this optimistic outlook.
In this article I am going to undertake the challenge of conveying my thoughts regarding this latest report claiming military grade data encryption has been compromised with the aid of what might now be considered “off the shelf” commercial grade quantum computing products, with a comprehensive examination of why in my view and experience, despite its vast potential for human betterment, quantum computing is likely to be prioritised for military applications over commercial and enterprise business use cases.
This prioritisation could ultimately hinder its benevolent applications and exacerbate global security concerns. This at a time when once again a technology with so much promise, and capacity to benefit humanity at large, finds us yet again facing the unfortunate reality that a trans-formative technology is most likely to be locked up by governments for military use cases rather than improving life for billions of every day humans.
The Unfulfilled Promise of Quantum for Humanity
Quantum computing has captured the imaginations of scientists and futurists alike, offering tantalising glimpses of a future where seemingly intractable problems become solvable. Let’s delve deeper into some of the potential applications that have sparked such excitement:
- Revolutionising Medicine: Imagine a world where diseases like cancer and Alzheimer’s are conquered, where new pandemics are swiftly contained, and where personalised medicine tailors treatments to individual genetic profiles. Quantum computers could make this a reality. They could be used to design new drugs and therapies with unprecedented precision, simulating the intricate interactions of molecules to understand diseases at a fundamental level. This could accelerate drug discovery, reduce development costs, and lead to more effective treatments with fewer side effects. Furthermore, quantum computers could analyse vast datasets of patient information to identify patterns and predict disease outbreaks, enabling proactive healthcare interventions.
- Combating Climate Change: The climate crisis is arguably the most pressing challenge facing humanity. Quantum computing offers a glimmer of hope in this fight. By simulating complex climate systems with unprecedented accuracy, quantum computers could help us predict and mitigate the effects of climate change. They could also be instrumental in developing highly efficient renewable energy sources, such as solar cells that capture a greater percentage of sunlight or batteries that store energy more effectively. Furthermore, quantum computers could accelerate the design of innovative carbon capture technologies, helping to remove greenhouse gases from the atmosphere.
- Advancing Artificial Intelligence: Artificial intelligence has the potential to revolutionise countless industries and aspects of our lives. However, current AI algorithms are limited by the capabilities of classical computers. Quantum computers could break through these limitations, enabling the development of AI systems with vastly superior learning and problem-solving abilities. This could lead to breakthroughs in fields like robotics, natural language processing, and machine learning, with potential benefits in areas like disaster response, education, and scientific discovery. Imagine AI-powered robots assisting in search and rescue operations, personalised AI tutors providing tailored education to students, and AI systems accelerating scientific discovery by analysing vast datasets and identifying hidden patterns.
- Transforming Materials Science: The development of new materials with tailored properties is crucial for technological advancement. Quantum computers could revolutionise materials science by simulating the behaviour of atoms and molecules with unprecedented accuracy. This could lead to the design of materials with extraordinary properties, such as superconductors that revolutionise energy transmission, lightweight and ultra-strong materials for aerospace applications, and self-healing materials that can repair themselves. These advancements could lead to innovations in fields like construction, electronics, and transportation, paving the way for more sustainable and efficient technologies.
These examples illustrate the transformative potential of quantum computing for human betterment. However, it is crucial to acknowledge that these applications are still largely theoretical, requiring significant advancements in both hardware and software before they can be fully realised.
The Seduction of Military Advantage: Why Defence Takes Precedence
While the potential benefits of quantum computing for humanity are vast, the unfortunate reality is that its most immediate and impactful applications are likely to be in the military domain. This is driven by several factors:
- The Existential Nature of National Security: Nations face threats to their very existence, from hostile adversaries to the potential for devastating cyberattacks. This creates a sense of urgency that drives rapid adoption of any technology that can shift the balance of power. Unlike businesses, which are primarily concerned with profitability and market share, national security agencies must constantly assess and mitigate existential threats. This makes them more likely to prioritise and invest heavily in emerging technologies like quantum computing, even if the potential benefits are still uncertain.
- The Allure of Asymmetric Advantage: Quantum computing offers the potential for asymmetric advantages in warfare, allowing nations to leapfrog their adversaries in terms of technological capabilities. The ability to break encryption, enhance intelligence gathering, and develop new weapons systems creates a compelling case for prioritising military applications. Imagine a nation that can intercept and decrypt its enemies’ communications, rendering their strategies and tactics transparent. Or a nation that can develop new materials for stealth aircraft or hypersonic missiles, giving them a decisive edge in combat. These are the kinds of advantages that drive military investment in quantum computing.
- The Urgency of Cryptographic Threats: The recent report of Chinese researchers breaking military-grade encryption using a quantum computer highlights the immediate threat posed by this technology to national security. Modern cryptography, which underpins secure communication, financial transactions, and critical infrastructure, relies on mathematical problems that are difficult for classical computers to solve. However, quantum computers, with their unique ability to exploit quantum phenomena, can potentially break these encryption schemes. This could have devastating consequences, allowing adversaries to access classified information, disrupt critical infrastructure, and even manipulate financial markets. The urgency of this threat compels nations to prioritise the development of quantum-resistant cryptography and other defensive measures.
Resource Allocation and the Prioritisation of National Security
The development of quantum computing requires significant investment in research and development, a cost that is often beyond the reach of private companies. Governments, particularly those of major powers, are more likely to prioritise funding for military applications due to:
- National Security as a Core Responsibility: National security is a fundamental responsibility of any government. Investing in technologies that maintain a strategic advantage is seen as essential for protecting national interests and ensuring the safety of citizens. This is especially true in an era of increasing geopolitical competition, where nations are vying for technological dominance.
- Secrecy and Control: Military applications often require a level of secrecy and control that is incompatible with the open nature of commercial research and development. Governments are better positioned to maintain control over sensitive quantum technologies, preventing them from falling into the wrong hands. This is particularly important in the context of dual-use technologies, which can have both civilian and military applications.
- Long-Term Vision: Governments can afford to take a longer-term view on investment in quantum technologies, even if the payoff is not immediate. Businesses, on the other hand, are often driven by short-term profitability concerns. This allows governments to invest in high-risk, high-reward research that may not yield immediate commercial benefits but could have significant long-term implications for national security.
The Commercial Potential: A Secondary Priority
While the initial focus will be on military applications, the commercial potential of quantum computing is undeniable. However, several factors suggest that widespread commercial adoption will lag behind military applications:
- Cost and Accessibility: Quantum computers are currently extremely expensive to build and operate, requiring specialised expertise and infrastructure. This limits their accessibility to large corporations and research institutions, making it difficult for smaller businesses to leverage their potential.
- Lack of “Killer Apps”: While promising applications exist, there is still a lack of “killer apps” that demonstrate a clear and compelling business case for quantum computing. Many of the potential benefits are still theoretical or require further technological advancements before they can be realised. This makes it difficult for businesses to justify the significant investment required to adopt quantum computing.
- Maturity of Technology: Quantum computing is still in its early stages of development. Significant advancements in hardware and software are needed before it can be widely deployed in commercial settings. This includes improving the stability and reliability of quantum computers, developing more efficient algorithms, and creating user-friendly software interfaces.
So where to from here
The implications of quantum computing will be felt first and foremost in the military domain. The urgency of national security, the allure of asymmetric advantage, and the prioritisation of resource allocation all point to a scenario where military applications will lead the way. While the commercial potential of quantum computing is significant, its widespread adoption will likely be a gradual process, driven by further technological advancements and the emergence of compelling business use cases.
This prioritisation of military applications has significant implications for global security. Nations that lag behind in the quantum race risk falling prey to adversaries with superior technological capabilities. This could lead to a new arms race, increasing global tensions and the risk of conflict. Furthermore, the focus on military applications could divert resources and talent away from developing solutions to pressing global challenges like climate change, disease, and poverty.
So where does this leave us we should be asking ourselves? That is the key question to take away from this in my view. There is no question the future of quantum computing is at a crossroads. The issue we face in this context now is weather or not we will harness its power to create a better world for all, or will we succumb to the temptation of military advantage?
The answer to this question will have profound consequences for the future of humanity. It is crucial for policymakers, researchers, and the public to engage in a thoughtful and informed debate about the ethical implications of quantum computing and to ensure that its development is guided by principles of peace, cooperation, and human betterment.
If you or your business or organisation of any size, scale, type or form, are facing any of the challenges relating to the topics I’ve tabled in this article, please do feel free to reach out, get in touch, as I would welcome the opportunity to work with you, to schedule a phone or video ( or indeed in-person ) call or meeting, to work with you, and to bring the best possible business partners to the table, to connect you with the world’s best data and AI solution and service providers possible to help you achieve successful outcomes for you and your organisation.
