Berichten in Quantum Sensing

Harvard Law Publishes Hippocratic Quantum: The Ethics of Biomedical Discovery in the Quantum Age

Cambridge, MA, February 25, 2026—Harvard Law’s Petrie-Flom Center has published Mauritz Kop’s new article, Hippocratic Quantum: The Ethics of Biomedical Discovery in the Quantum Age:https://petrieflom.law.harvard.edu/2026/02/25/hippocratic-quantum-the-ethics-of-biomedical-discovery-in-the-quantum-age/

The article advances a proposition that is becoming increasingly difficult for health lawyers, policymakers, and biomedical innovators to ignore: as quantum technologies begin to enter biomedical discovery, the decisive challenge is no longer only scientific capability, but rather governance. In Kop’s account, quantum-enabled medicine should not be understood as a distant or speculative frontier that can be regulated later, once the engineering settles. It should instead be approached as a present-tense quantum governance problem, one that already implicates patient confidentiality, data integrity, cyber resilience, export controls, supply chains, and the geostrategic value of biomedical knowledge.

The article’s answer is not a new morality, but a more demanding implementation of an existing one: quantum medicine requires a Hippocratic framework that is technical enough for engineers, legal enough for regulators, and concrete enough for hospitals and pharmaceutical firms, yet flexible enough to let innovation breathe and encourage the crucial public-private investment necessary to advance allied quantum capabilities.

Five examples of quantum-enabled biomedical innovations

To ground this institutional view, one must consider the specific technological capabilities currently transitioning from theoretical physics to applied biomedicine. Five feasible vectors of innovation illustrate the breadth of this shift. In the domain of quantum computing, hybrid classical-quantum algorithms are emerging to optimize complex drug discovery pipelines and process large-scale genomic datasets. In quantum sensing, technologies such as diamond nitrogen-vacancy magnetometry enable ultra-sensitive, room-temperature mapping of neurological and cardiac activity. For quantum simulation, researchers are utilizing qubit-based systems to model molecular interactions and drug-target binding affinities with high accuracy, aiming to reduce reliance on extensive physical wet-lab screening. Within quantum imaging, techniques leveraging entangled photons permit the high-resolution visualization of cellular structures at lower light intensities, thereby mitigating phototoxicity in living tissues, benefitting medical diagnosis. Finally, in quantum networking, the deployment of quantum key distribution protocols offers a mechanism to cryptographically secure the transmission of sensitive multi-omics data across distributed hospital and research architectures.

From legal-ethical framework to Quantum-ELSPI

The Harvard article is best read as part of a longer intellectual trajectory. An early expression of that project appeared in March 2021 in the Yale Journal of Law & Technology, in Establishing a Legal-Ethical Framework for Quantum Technology: https://yjolt.org/blog/establishing-legal-ethical-framework-quantum-technology

That Yale piece argued that quantum technologies were moving from hypothetical ideas to commercial realities, and that law and policy should not wait for full technical maturity before building governance tools. It proposed a culturally sensitive legal-ethical framework for applied quantum technologies, drawing on AI governance and nanotechnology’s ELSI tradition while recognizing the distinct physical characteristics of quantum systems. Crucially, it also insisted that ethical aspiration must be accompanied by practical mechanisms for monitoring, validation, and life-cycle risk management. In retrospect, many of the themes that now reappear in Hippocratic Quantum were already visible there: the concern for human-centered design, the call for risk-based governance, and the insistence that ethics without institutionalization would be inadequate.

Why quantum medicine changes the governance question

The new Harvard article narrows the focus to biomedicine, but in doing so it sharpens the stakes. Biomedical discovery is not simply another application area. It is a setting in which long-lived and highly sensitive data, bodily integrity, public-health interests, commercial incentives, and geopolitical competition intersect. Quantum technologies matter here not because they promise speculative disruption, but because they may incrementally and then materially improve specific tasks: hybrid quantum-classical computational chemistry, de novo molecular design, lead optimization, selected toxicity and metabolism modeling, and perhaps aspects of high-fidelity sensing, simulation, and networked quantum computation. The issue, then, is not whether every promise will be realized immediately. It is whether institutions are preparing now for the forms of capability that are already foreseeable.

A Harvard-facing research arc

This Harvard publication also extends a longer Harvard-facing research arc across AI, health law, and responsible quantum governance. That arc includes:

The Right To Process Data For Machine Learning Purposes In The EU (Harvard JOLT) https://jolt.law.harvard.edu/digest/the-right-to-process-data-for-machine-learning-purposes-in-the-eu
Towards Responsible Quantum Technology (Harvard Berkman Klein) https://cyber.harvard.edu/publication/2023/towards-responsible-quantum-technology
EU And US Regulatory Challenges Facing AI Health Care Innovator Firms (Harvard Petrie-Flom) https://petrieflom.law.harvard.edu/2024/04/04/eu-and-us-regulatory-challenges-facing-ai-health-care-innovator-firms/
A Brief Quantum Medicine Policy Guide (Harvard Petrie-Flom) https://petrieflom.law.harvard.edu/2024/12/06/a-brief-quantum-medicine-policy-guide/
How Quantum Technologies May Be Integrated Into Healthcare: What Regulators Should Consider (Stanford Law) https://hls.harvard.edu/bibliography/how-quantum-technologies-may-be-integrated-into-healthcare-what-regulators-should-consider/

Seen in this broader context, Hippocratic Quantum brings together early legal-ethical framing, responsible quantum governance, healthcare regulation, and geopolitical analysis into a single biomedical governance argument.

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Mauritz Kop Speaks at Oxford University on Quantum Threats

Oxford University, 10 November 2025—This afternoon, Professor Mauritz Kop joined distinguished colleagues at the University of Oxford for a high-level panel discussion titled “Quantum Supremacy: Technology, Strategy, and International Order.” Hosted by the Department of Politics and International Relations (DPIR) and the Oxford Emerging Threats & Technology Working Group (ETG), the event convened a diverse audience of scholars, policymakers, and industry leaders to dissect the rapidly evolving landscape of quantum technologies.

Moderated by Sarah Chen, the session moved beyond the hyperbolic headlines often associated with quantum computing to address the granular realities of strategy, governance, and international security. Alongside Kop, the panel featured Dr. Simson Garfinkel of BasisTech, Angus Lockhart of SECQAI, and Professor Michael Holynski of the UK Quantum Technology Research Hub. The resulting dialogue offered a dense, forward-looking examination of quantum threats and opportunities—ranging from the precision of quantum sensing and the urgency of post-quantum cryptography (PQC) to the geopolitical friction points of supply-chain resilience and the risk of sub-optimal governance lock-in.

The Mission of Oxford’s Emerging Threats & Technology Working Group

The context for this discussion was set by the unique mandate of the host organization. The Emerging Threats & Technology Working Group at Oxford University stands as one of the few academic platforms systematically examining how critical and emerging technologies (CETs) reshape the security environment. Meeting regularly to assess the national-security implications of technologies such as artificial intelligence, quantum computing, directed energy, and space systems, the Group brings together participants from academia, industry, and government in a hybrid format.

This institutional design is consequential. By convening interdisciplinary seminars and publishing detailed session reports, Oxford Emerging Threats builds a community capable of treating quantum technology not merely as a laboratory curiosity or a narrow industrial race, but as a systems problem. Within this forum, quantum is framed as a variable that touches deterrence, alliance cohesion, human rights, and the resilience of critical infrastructures. For Stanford RQT (Responsible Quantum Technology), represented by Kop, this mandate aligns closely with the necessity to develop governance, standards, and strategic frameworks that keep quantum innovation compatible with an open, rules-based international order.

Reframing the Narrative: From Quantum Supremacy to Allied Quantum Assurance

In his opening remarks, Kop challenged the utility of the term “quantum supremacy” when applied to state actors. While the term has technical validity in describing a computational threshold, legally and strategically it acts as a misleading metaphor. Kop argued that for democratic states, the more relevant concept is assurance: the ability of allies to deploy quantum-era capabilities in a way that is verifiable, interoperable, and resilient, while simultaneously preserving an open international order.

To operationalize this, Kop proposed the framework of Allied Quantum Assurance, a strategy built upon recognizing that the world is currently crossing a “quantum event horizon.” Much like an astrophysical event horizon represents a point of no return, the current governance tipping point implies that early decisions on standards, export controls, supply chains, and research security will lock allies into long-lasting path dependencies.

The immediate driver of this urgency is the “harvest-now, decrypt-later” (HNDL) risk—a metaphorical “Q-Day” scenario where data exfiltrated today is decrypted by a future, Shor-capable quantum computer. This reality reframes strategic stability: whereas classical nuclear deterrence rests on mutually assured destruction, quantum security centers on deterrence-by-denial, achieved through informational assurance and operational resilience.