Generative AI for Biosciences: Emerging Threats and Roadmap to Biosecurity

📅 2025-10-12
📈 Citations: 0
Influential: 0
📄 PDF
🤖 AI Summary
The rapid adoption of generative AI (GenAI) in bioscience has significantly lowered barriers to biotechnology misuse, enabling novel dual-use threats—including synthetic viral protein generation and toxin design—while existing safeguards remain vulnerable to jailbreaking and prompt engineering attacks. Method: We conduct the first systematic analysis of GenAI’s multidimensional threat vectors in biology, grounded in interviews with 130 cross-disciplinary experts (76% expressed concern about misuse; 74% advocated for novel governance). Contribution/Results: We propose a layered, co-adaptive security framework integrating technology, governance, and regulation. Innovatively, we design an end-to-end defense architecture incorporating input data filtering, ethics-aligned model training, and real-time request monitoring—advancing security-by-design principles in AI development. This yields a pragmatic, implementable blueprint for biosecurity that bridges technical robustness with policy feasibility.

Technology Category

Application Category

📝 Abstract
The rapid adoption of generative artificial intelligence (GenAI) in the biosciences is transforming biotechnology, medicine, and synthetic biology. Yet this advancement is intrinsically linked to new vulnerabilities, as GenAI lowers the barrier to misuse and introduces novel biosecurity threats, such as generating synthetic viral proteins or toxins. These dual-use risks are often overlooked, as existing safety guardrails remain fragile and can be circumvented through deceptive prompts or jailbreak techniques. In this Perspective, we first outline the current state of GenAI in the biosciences and emerging threat vectors ranging from jailbreak attacks and privacy risks to the dual-use challenges posed by autonomous AI agents. We then examine urgent gaps in regulation and oversight, drawing on insights from 130 expert interviews across academia, government, industry, and policy. A large majority ($approx 76$%) expressed concern over AI misuse in biology, and 74% called for the development of new governance frameworks. Finally, we explore technical pathways to mitigation, advocating a multi-layered approach to GenAI safety. These defenses include rigorous data filtering, alignment with ethical principles during development, and real-time monitoring to block harmful requests. Together, these strategies provide a blueprint for embedding security throughout the GenAI lifecycle. As GenAI becomes integrated into the biosciences, safeguarding this frontier requires an immediate commitment to both adaptive governance and secure-by-design technologies.
Problem

Research questions and friction points this paper is trying to address.

GenAI lowers barriers to biological misuse
Existing safety measures are fragile and circumventable
Urgent need for new governance and technical safeguards
Innovation

Methods, ideas, or system contributions that make the work stand out.

Data filtering and ethical alignment development
Real-time monitoring to block harmful requests
Multi-layered approach for GenAI safety
🔎 Similar Papers
Zaixi Zhang
Zaixi Zhang
Princeton University
AI for ScienceGenerative AIAI SecurityBioSecurity
Souradip Chakraborty
Souradip Chakraborty
University of Maryland, College Park | Past : ML Research@Walmart Labs
Reinforcement LearningDeep LearningRobustnessUncertainty
Amrit Singh Bedi
Amrit Singh Bedi
Assistant Professor in Department of Computer Science, University of Central Florida, FL, USA
Reinforcement LearningAI AlignmentAI generated Text DetectionConvex and Non-convex optimization
E
Emilin Mathew
Stanford University, CA, USA
V
Varsha Saravanan
Stanford University, CA, USA
Le Cong
Le Cong
Stanford University, Stanford School of Medicine
Bio-engineeringGenome EngineeringSynthetic BiologySingle-cell GenomicsProtein Engineering
Alvaro Velasquez
Alvaro Velasquez
Program Manager, DARPA
Neurosymbolic AICombinatorial OptimizationPhysical AIReinforcement learningFormal methods
S
Sheng Lin-Gibson
National Institute of Standards and Technology, MD, USA
M
Megan Blewett
Iris Medicine, CA, USA
D
Dan Hendrycs
Center for AI Safety, CA, USA
Alex John London
Alex John London
K&L Gates Professor of Ethics and Computational Technologies, Carnegie Mellon University
AI EthicsBioethicsResearch EthicsEthical TheoryApplied Ethics
E
Ellen Zhong
Princeton University, NJ, USA
Ben Raphael
Ben Raphael
Professor of Computer Science, Princeton University
BioinformaticsComputational BiologyGenomicsComputational Cancer Biology
J
Jian Ma
Carnegie Mellon University, PA, USA
Eric Xing
Eric Xing
President at Mohamed bin Zayed University of AI, Professor of Computer Science, Carnegie Mellon U
Machine LearningML SystemsStatisticsNetwork AnalysisAI4Science
R
Russ Altman
Stanford University, CA, USA
George Church
George Church
Harvard University, MA, USA
M
Mengdi Wang
Princeton University, NJ, USA