AIxBio Safeguards

Ensure that AI systems capable of substantially accelerating biological misuse incorporate robust safeguards.

Last updated: October 1, 2026

5-year budget target

$175M

Pillar

Prevent

Current Status of the Field

Technology36

LLM bio-risk evaluations and mitigations are emerging, but evaluations and mitigations for biological AI models, agentic bioscience workflows, and autonomous labs remain underdeveloped and fragmented.

Policy

Frontier AI commitments increasingly mention biological risk, but requirements rarely distinguish LLMs, specialized biological models, and AI systems linked to laboratory execution. Emerging legal requirements apply primarily to frontier labs, but not to the broader ecosystem of labs developing biological AI models and other scientific tooling.

Bottleneck

A key bottleneck is creating effective incentive structures–including through regulations, liability, and financial incentives–for developers of LLMs, agentic systems, biological AI models, and autonomous labs to deploy robust evaluations and mitigations to guard against misuse. As part of this effort it will be important to clearly distinguish different sets of stakeholders who face different incentives and operational requirements, while preserving a common threshold for biological capabilities of concern and a common expectation of independent evaluation.

The Problem23,37,38

AI is rapidly lowering the expertise barrier for biological weapons design, and safeguards have not kept pace. Frontier LLMs, biological AI models, agentic systems, and autonomous-lab workflows share some risks but have different developers, evaluation tools, users, and failure modes. Not all frontier models undergo biological risk evaluation before deployment, bio-specific model evaluation tooling remains immature, and there are no widely adopted norms governing model release,39 high-risk biological training data,40 trusted and monitored access, or AI systems that can move from biological design toward physical creation.

The Solution

While further research is needed to develop more effective evaluations and mitigations, a meaningful set of technical and governance interventions already exists, including: evaluation standards, managed access, trusted user verification, LLM mitigation deployment, and independent red-teaming. The immediate bottleneck is that many AI developers do not conduct appropriate biorisk evaluation in the first place, and biological AI models often need different evaluation tooling and mitigations than general-purpose LLMs. Securing commitments for risk reduction actions for frontier LLMs and agents, biological AI models, and autonomous-labs is therefore the urgent first move. The longer-term goal is broader: consensus definitions of AIxBio capabilities of concern, full evaluation coverage and effective mitigations for relevant models, secure handling of high-risk biological training data, no open-source proliferation of AIxBio capabilities of concern, and carefully monitored managed access pathways for legitimate uses of especially powerful dual-use AIxBio capabilities.

Objectives

  • ◆Consensus definitions of AIxBio capabilities of concern are adopted to inform evaluation and safeguards nationally and internationally.
  • ◆High-risk biological training data are generated and shared only in secure environments.
  • ◆Limit the ability of open-source models to proliferate the capability to design pandemic pathogens with the potential to cause a global biological catastrophe.
  • ◆100% of frontier LLMs with biological capabilities of concern undergo pre-deployment biorisk evaluation and deploy effective and proportionate safeguards.
  • ◆100% of biological AI models and other specialized biological AI systems with capabilities of concern undergo dedicated evaluation using bio-specific tooling, not only general-purpose LLM tests.
  • ◆Robust mitigations41,42 are developed and deployed across AI systems43 to guard against misuse of AIxBio capabilities, including LLMs, agentic bioscience workflows, biological AI models,41 and autonomous labs.
  • ◆Autonomous AI-lab workflows that connect design tools to physical creation pathways are evaluated and governed before they can operate at scale.
  • ◆Defensive use is accelerated with secure early access to monitored models under a two-tier system: general frontier models with limited bio capabilities and safeguards to keep those limited, and monitored bio-helpful models with adequate KYC and oversight. This is similar to Project Glasswing as Anthropic’s Mythos model was released.44
  • ◆Biological AI models and other specialized biological AI systems with especially powerful capabilities of concern–whether deployed by frontier labs, academic labs, startups, or other groups–are protected by trusted access frameworks45–50 that enable responsible scientists, who undergo know-your-customer vetting, to use those tools.
  • ◆A Guardian AI system operates as a continuous, real-time monitoring layer across frontier AI deployments with biological capabilities — detecting anomalous query patterns, novel jailbreak attempts, and coordinated misuse campaigns, with the authority to throttle or suspend access autonomously when risk thresholds are exceeded

Urgent 2027 Milestone

Secure binding biorisk evaluation and safeguard commitments for both frontier LLMs and biological AI models, and launch a dedicated pilot for autonomous lab plus AI risk.

Long-term Targets

Evaluation coverage

100% by end of 2027

Safeguard coverage

100% by end of 2029

Data security coverage

100% by end of 2029

Year-by-Year

Philanthropy

  • •Convene international processes to define biological capabilities of concern for frontier AI and biological models
  • •Fund separate evaluation standards for frontier LLM biological risk and biological AI model risk
  • •Fund pilot evaluation of autonomous AI-lab workflows that connect biological design to physical creation pathways
  • •Fund pilot safeguards, including managed access and monitoring, for agentic systems and high-risk biological AI models
  • •Fund independent AI-bio red-teaming

Private Sector

  • •Conduct pre-deployment biorisk evaluations for relevant frontier LLMs and submit them to independent red-teaming
  • •Develop and test bio-specific evaluation tooling for biological AI models
  • •Identify autonomous-lab integrations that require evaluation before broader deployment
  • •Implement proven safeguards for models that exhibit capabilities of concern
  • •Support information sharing and norm development among frontier developers

Government

  • •Adopt or begin adopting policy definitions of biological capabilities of concern for AI systems
  • •Support standards development for pre-deployment AI biorisk evaluation across separate LLM, biological AI model, and autonomous-lab tracks
  • •Use formal agreements, procurement conditions, or other mechanisms to encourage safeguard adoption
  • •Begin developing policy approaches for secure handling of high-risk biological training data and responsible model release

Philanthropy

  • •Continue funding deployment of screening software and independent audit capacity across providers, including smaller and international firms
  • •Support implementation-focused KYC tools and verification infrastructure
  • •Continue funding separate AI-bio evaluation tracks for frontier LLMs, biological AI models, and autonomous-lab workflows
  • •Support broader bio-audit adoption, institutional awareness, and development of publication-risk-management norms
  • •Continue support for misuse-detection tooling and cross-provider threat-sharing systems

Private Sector

  • •Implement standardized synthesis screening and customer verification at scale
  • •Participate in split-order detection systems and submit to independent screening verification where possible
  • •Expand KYC adoption across high-risk vendors and service providers
  • •Make AI-bio evaluation and safeguard deployment routine across separate LLM, biological AI model, and autonomous-lab tracks
  • •Expand participation in bio-audits, accident reporting, pre-publication review, and institutional adoption pilots
  • •Routinely share threat signals and maintain misuse monitoring

Government

  • •Move from legislative or rulemaking activity to initial compliance and oversight in synthesis screening and KYC
  • •Support independent verification of AI biorisk evaluation and safeguard adoption through track-specific formal agreements or requirements
  • •Expand implementation of accident-reporting requirements, research-risk oversight, and institutional participation pathways
  • •Support law-enforcement pathways for escalating provider-generated threat signals
2029 — Scale and enforcePrevent-level actions

Philanthropy

  • •Support more advanced evasion-resistant and function-based screening R&D
  • •Support scaling of KYC tools and red-teaming across a broader set of high-risk service categories
  • •Support secure data infrastructure for high-risk biological AI training data and continued safeguard research across LLM, bio-AI-model, and autonomous-lab tracks
  • •Support global governance reform, institutional adoption, and continued capacity-building for bio-audits and risk-based research oversight
  • •Support public communication efforts that reinforce deterrence posture and accountability

Private Sector

  • •Submit to independent screening verification and deploy updated screening algorithms
  • •Extend KYC and more extensive customer vetting to newly covered categories such as CROs, cloud labs, repositories, and AI/bio tools
  • •Continue safeguard deployment for high-risk AI systems and participate in track-specific red-teaming
  • •Expand compliance with institutional risk-governance requirements, adoption programs, and misuse monitoring mandates

Government

  • •Enforce synthesis-screening compliance and audit requirements
  • •Regulate the secondary market for benchtop synthesis devices and broaden KYC requirements to additional high-risk categories
  • •Mandate safeguards for high-risk AI systems with biological capabilities across separate LLM, biological AI model, and autonomous-lab pathways
  • •Institutionalize accountable public oversight for high-consequence biological research, including licensing, institutional participation, and bio-audit frameworks
  • •Institute requirements for misuse monitoring and threat sharing for high-risk biological services

Philanthropy

  • •Focus remaining philanthropic capital on gap-closing, deterrence signaling, and ensuring high-risk systems actually perform under stress
  • •Support maturation of attribution capabilities and public communication around accountability
  • •Continue targeted support for jurisdictions, sectors, or institutions lagging in compliance, AIxBio safeguards, or research-governance adoption

Private Sector

  • •Achieve broad compliance with screening, KYC, safeguard, and misuse-monitoring requirements
  • •Maintain regular red-teaming, audit participation, and rapid remediation processes
  • •Support stronger bioforensic attribution capability through data-sharing and exercise participation

Government

  • •Ensure broad compliance and meaningful enforcement across screening, KYC, AIxBio safeguards, and research governance
  • •Verify that high-risk LLM, biological AI model, and autonomous-lab safeguards perform under stress
  • •Establish or strengthen attribution and accountability doctrine for biological attacks
  • •Exercise bioforensic and deterrence capabilities routinely

Philanthropy

  • •Focus on closing residual gaps, supporting lagging geographies or sectors, and maintaining pressure for continuous improvement
  • •Continue support for frontier-risk research, AI-bio track-specific evaluation, institutional research-governance adoption, residual-risk assessment, and measurement refinement

Private Sector

  • •Maintain high compliance and continuous improvement in screening, KYC, safeguards, red-teaming, and misuse monitoring

Government

  • •Sustain enforcement, update standards to keep pace with new technologies, and ensure risk-governance and AI-bio safeguard systems remain current

Who's Working on This

Funders

Implementers

Active Site Research
NonprofitUS
Formerly Panoplia Labs. Runs in-person wet-lab experiments measuring how frontier AI changes what people can do in biology: including the largest AIxBio randomized trial to date (2026), co-developed ABC-Bench with SecureBio, and runs wet-lab studies informing synthesis governance.
Apart Research
Nonprofit

field-building

AI-safety nonprofit running weekend research hackathons; its April 2026 AIxBio Hackathon (595 sign-ups, co-run with BlueDot and the Cambridge Biosecurity Hub) ran tracks on DNA screening, pandemic early warning, AI biosecurity tools, and benchtop synthesizer security.
BlueDot Impact
Nonprofit

field-building

Runs the field's largest entry-level biosecurity course: a free 30-hour facilitated curriculum covering prevention, detection, response, and dual-use governance, with rapid and career-transition grants for graduates.
CAISI
GovernmentUS
U.S. Center for AI Standards and Innovation (NIST): evaluates frontier AI capabilities against biosecurity, cybersecurity, and chemical weapons risks
Cambridge Biosecurity Hub
Nonprofit

field-building

Biosecurity-only talent hub in Cambridge, UK running a seven-week Pandemic Prevention Fellowship, co-running the AIxBio Research Fellowship with ERA, operating SPAR's biosecurity stream, and hosting an annual AIxBio Symposium.
CBAI
Nonprofit

field-building

Cambridge Boston Alignment Initiative: its ten-week, in-person AIxBiosecurity Research Fellowship (first cohort October 2026) matches funded fellows with mentors from RAND, Active Site, SecureBio AI, and Harvard on evaluations, safeguards, biosurveillance, and synthesis screening.
Center for Long Term Resilience
NonprofitUK
UK-based policy organization focused on catastrophic and existential risk including biorisk
CSET
Academic
Georgetown Center for Security and Emerging Technology: policy research on AI-biosecurity intersections
ERA Fellowship
Nonprofit

field-building

Runs the fully funded ten-week AIxBio Research Fellowship in Cambridge, UK with the Cambridge Biosecurity Hub: fellows test biological safeguards for AI models and strengthen synthesis screening, with strong projects leading to research scholar positions.
Frontier Model Forum
Private co.US

ai

Industry-led body for frontier AI safety. Operates a Biology working group focused on bio-AI safeguards, best-practice frameworks, and cross-provider information sharing among frontier model developers.
Gov.ai
AcademicUK

research

Research center on AI governance with work on dual-use biological capabilities
Gryphon Scientific
Private co.
Biosafety and biosecurity risk analysis consultancy (now part of Deloitte): dual-use research and AI-bio risk assessments
Johns Hopkins Center for Health Security
AcademicUS

research

Research and policy center focused on health security and biosecurity preparedness
LatchBio
Private co.
Venture-backed bio data company whose Latch Biosecurity unit publishes the BioSecBench AI-safety benchmarks (Function, Surveillance, Refusal), runs pre-deployment audits and red-teaming for frontier labs, and: via its June 2026 acquisition of TwentyTwo, sells agentic customer screening and function-based sequence screening to synthesis providers.
MATS
Nonprofit

field-building

AI-safety research training program (631 alumni since 2021) whose dedicated Biosecurity track launched Autumn 2026: twelve-week mentored fellowships spanning detection, countermeasures, AI for synthesis screening, physical biodefense, and AIxBio red-teaming.
NSCEB
Government
National Security Commission on Emerging Biotechnology: delivered its 2025 report to Congress and continues advancing its biotech security recommendations through 2026
NTI | bio
NonprofitUS
Nuclear Threat Initiative biosecurity program: policy, coalition-building, and threat reduction
Oxford Biosecurity Group
Nonprofit

field-building

Biosecurity-only research training group running part-time remote project cycles with partner organizations (51 researchers across 14 projects in 2024); spun out the Biosecurity Forecasting Group in 2025.
Pivotal Research
Nonprofit

field-building

Fellowship operator whose Frontier Biodefense Fellowship (first cohort London, August-October 2026, 20+ fellows) trains researchers on PPE for catastrophic threats, biohardening, and pathogen-agnostic detection with mentors from Blueprint Biosecurity, SecureBio, and CLTR.
RAND Corporation
NonprofitUS
Policy research organization whose biosecurity work sits in its Center on AI, Security, and Technology (CAST), covering AIxBio misuse evaluation and disruption, bioresilience, and mirror biology.
SecureBio
NonprofitUS
Nonprofit working to protect society from catastrophic pandemics. Develops AI biosecurity evaluations (VCT, ABC-Bench, ABLE) for frontier model safety, and operates SecureBio Detection / CASPER: a national metagenomic wastewater surveillance network for early pathogen warning.
SPAR
Nonprofit

field-building

Supervised Program for Alignment Research (Kairos AI Project): part-time remote three-month research fellowship that added a biosecurity stream in 2026, with projects mentored by Fourth Eon, Johns Hopkins CHS, SecureBio AI, and Pivotal.
UK AISI
GovernmentUK
UK AI Security Institute: conducts frontier model evaluations for biological, chemical, and cyber misuse risk
Zurich Biosecurity Hub
Nonprofit

field-building

Early-stage local biosecurity hub running a small-group course on catastrophic biological risks, a Biosecurity Futures lecture series at ETH Zurich, a monthly reading group, and career advising.

What's Still Needed

coalition
Shared monitoring layer for detecting suspicious biological misuse across AI systems and AI-enabled bio services.
nonprofit
Trusted infrastructure for governing access to high-risk biological training data.
startup
Continuous real-time AI monitoring layer for frontier biological AI deployments.