Imagine a world where the capacity to manipulate the building blocks of life, currently the domain of elite scientists and multi-billion-dollar projects, becomes accessible to anyone with a high school education and an internet connection.
As rapid advancements in the fields of biotechnology and artificial intelligence converge, this scenario – once considered the realm of science fiction – is quickly approaching reality.
In 2003, an international team of researchers achieved a significant milestone in biological research, successfully mapping over 92% of the first whole human genome and creating an unprecedented blueprint for the study of human biology. The Human Genome Project took over a decade to complete and cost nearly $3 billion. Today, the same feat can be achieved in a few weeks for a few hundred dollars.
The democratization of gene sequencing, alongside corollary advancements in gene synthesis, has and will continue to accelerate medical innovation. As biotechnology tools collide with emerging AI capabilities, they will also unlock a new and potentially devastating risk frontier by expanding our collective capacity to create and release potent biological weapons.
To reduce this risk, we need proactive regulation, coordinated global strategies, and resilient institutional responses. COVID-19 demonstrated the catastrophic consequences of a reactive global stance toward biological threats.
As our technologies become more and more powerful, enabling the creation of increasingly transmissible or deadly biological agents, reactive measures are no longer appropriate. It is critical that we act now to guardrail the Biological frontier and prevent irreversible ripple effects of exponential technologies left unchecked or under-regulated.
The Human Genome Project revolutionized our understanding of DNA and ushered in a new era in genetic exploration. Similarly, the fields of gene and recombinant protein synthesis – the processes by which designed sequences are transformed into physical instantiations – have undergone groundbreaking changes leading to increasingly lowered barriers to entry in synthetic biology. (Like sequencing, gene synthesis is orders of magnitude more affordable than ever before.)
These developments will impact a diverse array of sectors, with notable benefits for virus identification and pandemic response. However, the democratization of biological tools and knowledge, propelled by the integration of AI tools like LLMs, will also empower a growing number of actors with the capability to create or enhance pandemic-scale biological threats. Consider the following example:
In a recent academic exercise, an AI chatbot assisted graduate students in identifying four potential pandemic pathogens, issued step-by-step “lay-person” instructions for virus generation, and directed students toward companies that could manufacture synthetic DNA sequences for the purposes of engineering and producing these pathogens. The entire exercise took an hour to complete. While such a set of instructions could not enable an untrained actor to engineer a pandemic-capable pathogen today – and it is possible that with additional training and time, the same results may have been achieved without AI – the example showcases the potential of technology to “upskill” individuals without relevant subject matter expertise or experience. By leveraging a small slice of well-intended research, ongoing technological advancement will also increase the overall “ceiling” of harm by rendering pathogens more transmissible, deadlier, and/or more able to evade existing vaccines or therapies than their natural counterparts.
AI-enabled biology has and will continue to furnish world-changing breakthroughs for human health and disease management, offering opportunities in pandemic preparedness, cancer detection and treatment, and chronic disease management. It also poses significant challenges. As innovation progresses and industry accommodates demand at the AI Bioconvergence nexus, Helena is working to evaluate biosecurity risks, recommend safeguards, and advocate for enhanced, collaborative efforts to mitigate against emerging threats.
In January of 2023, Helena undertook a 6-month biosecurity risk landscape analysis, consulting with nearly 100 experts across academia, government, technology, public health, and the private sector. A significant subset oriented us to heightened risks related to the sequencing, characterization, design, engineering, and manufacturing of genetic material and pathogens, and pointed to limitations in oversight creating biosafety risks (relating to accidental release), biosecurity risks (relating to intentional misuse), and information risks (relating to the publication or other communication of materials that could be used to cause harm).
Recognizing the exponential growth of emerging technologies and the imperative to urgently address novel threats, Helena convened a group of senior leaders from industry, government, think tanks, and academia to interrogate this risk landscape and pressure-test courses of action. Their conversations took place over the course of two and a half days at The Rockefeller Foundation’s Bellagio Center.
The meeting was informed by extensive review of existing policy frameworks and subject matter literature. While primarily focused on emerging threats related to AI, the group also addressed risks relating to Dual Use Research of Concern (DURC) and research with enhanced Pathogens of Pandemic Potential (ePPPs).
These discussions resulted in the Biosecurity in the Age of AI Chairperson’s Statement, authored by the Honorable Mark Dybul, MD, Helena Member, with robust input from the Bellagio attendees.
The report recognized the complexity and pace of developments in AI-enabled biology and emphasized critical areas requiring further reflection, ongoing monitoring, and long-term analysis.
To advance critical action in the near-term, the Biosecurity in the Age of AI Chairperson’s Statement also recommended the following key interventions:
The full report can be accessed below.
Though many of those in attendance contributed their thoughts under Chatham House rule due to their positions within government, The Biosecurity in the Age of AI Report was publicly endorsed by a group of leading experts. A full list of endorsees can be found here.
The Biosecurity in the Age of AI Chairperson’s statement and related discussions have influenced U.S. executive orders on AI, Senate testimony on AI risks, and reports released in response to the UK AI Safety Summit. The team has been asked to brief a range of policymakers and industry leaders, including senior members of the State Department, the Department of Homeland Security and experts such as Microsoft AI CEO Mustafa Suleyman.
Significantly reducing biosafety and biosecurity risks without meaningfully curtailing scientific progress will require a combination of immediate, concrete actions alongside long-term analysis. Helena continues to focus on governance, legislative advocacy, and creating fora for meaningful dialogue to help develop adequate, complete, and holistic approaches for a safe and resilient high-tech future.
Gene synthesis is a technique in synthetic biology that involves the artificial construction of DNA sequences representing specific genes or genetic material. This process allows researchers to design and produce DNA sequences that may not exist naturally, enabling the study and manipulation of genes and their functions. This technique can be applied to various organisms, including viruses and bacteria, allowing scientists to investigate the characteristics of these pathogens and develop potential interventions or treatment, as well as understanding the role of specific genetic elements.
Recombinant protein synthesis is a method used to produce proteins by inserting genes coding for a specific protein into host cells, such as bacteria, yeast, or mammalian cells. The host cells then use the inserted DNA to produce the desired protein through their natural cellular machinery. This approach is widely used to manufacture proteins for research, medical, agricultural, and industrial purposes.
The intersection between computer-aided design and simulation tools (digital realm) and the translation of those designs into physical biological entities or systems (physical realm). It involves the process of utilizing computational tools to design and model biological components or organisms, and then implementing those designs through laboratory techniques to create functional biological entities or systems in the real world.
The ability to synthesize or assemble biological components, such as DNA or proteins, using compact and automated laboratory equipment that can be operated on a desktop or benchtop. This approach allows researchers to rapidly generate custom genetic constructs or biomolecules for applications in synthetic biology, genetic engineering, or protein engineering without the need for extensive infrastructure or specialized facilities.
Blue, yellow, and red-teaming refer to coordinated efforts to increase the resiliency of systems and protect against vulnerabilities. Such practices are often utilized in cybersecurity settings. Blue-teaming involves comprehensively assessing the threats to a given system. Yellow-teaming involves updating or building new systems that preempt or are resilient to vulnerabilities identified during blue-teaming. Red-teaming involves simulating attacks to test and improve upon defenses.
The process through which businesses verify and gather information about their clients to ensure compliance with regulations. Applications in the financial sector are designed to prevent identity theft, fraud, and money laundering.
Regulations that require businesses to have a clear understanding of their customers’ orders, including the nature of the products or services, the intended purpose, and any potential risks associated with the transaction, to ensure compliance with relevant laws and regulations.
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