OpenAI Launches Red Teaming Network to Enhance AI Model Safety

Black-and-white ink drawing of interconnected nodes and shields representing AI model security and collaborative red teaming
Red Teaming & Emergent Risk Note: This content reflects OpenAI's safety infrastructure and the launch of the Red Teaming Network as of September 2023. Participation in the network and the testing of models (including the recently announced DALL·E 3) are ongoing processes; therefore, red teaming results represent a “snapshot” of model safety and cannot guarantee the absence of all future vulnerabilities or adversarial jailbreaks. Expert participation is subject to OpenAI's selection criteria and ethical standards current to the date of application. You’re responsible for how you use this information; we can’t accept liability for decisions made based on it.

OpenAI has introduced a Red Teaming Network, inviting outside experts to help improve the safety of its AI models. The key signal in this announcement is structural: rather than relying only on one-off red teaming engagements around major launches, OpenAI is formalizing a longer-lived network intended to support ongoing risk assessment and mitigation across the product lifecycle.

TL;DR
  • OpenAI’s Red Teaming Network is designed as a persistent bench of experts who can be engaged at multiple stages of model and product development.
  • The most relevant emphasis is on specialized, high-stakes domains—CBRN-adjacent expertise (chemistry/biology/physics), persuasion/deception risks, and human-computer interaction (HCI).
  • With DALL·E 3 announced the day before this post, the network frames red teaming as a cross-product safety practice, not only a text-model concern.

The Purpose of Red Teaming in AI

Red teaming involves independent specialists rigorously examining systems to find weaknesses, unintended behaviors, and exploitable failure modes. For AI systems, “adversarial stress-testing” typically includes:

  • Capability discovery: identifying what a model can do beyond intended use.
  • Misuse exploration: testing whether the system can be steered into harmful outputs or risky workflows.
  • Mitigation probing: checking whether safeguards hold up under realistic, creative attacks.
  • Risk taxonomy building: defining categories of harm in domain-specific terms (not only generic “bad content”).

The practical outcome is not a claim of “perfect safety,” but a clearer map of where defenses fail, which failure modes are most urgent, and what mitigations actually reduce risk in the real world.

Institutionalizing AI Red Teaming

OpenAI has worked with external experts before, including red teaming around major releases. The network model differs by shifting from “single campaign” dynamics to a more persistent infrastructure:

  • Continuity: experts can be consulted across stages (early development, pre-release evaluation, post-deployment monitoring).
  • Selective activation: members may be called based on fit; not everyone tests every system.
  • Cross-pollination: the network is positioned as a community where practitioners can share general red teaming practices and insights.

In governance terms, that shift matters because it aligns with how real security programs operate: not as a one-time gate, but as an iterative discipline that matures alongside deployment.

Targeting Specialized High-Stakes Risks

OpenAI’s open call emphasizes diverse expertise, explicitly listing domains like chemistry, biology, physics, persuasion, and HCI. Those categories map directly onto high-stakes risk areas that are difficult to evaluate with general-purpose safety checks.

CBRN and high-consequence scientific risks

CBRN risk is often framed as a single label, but it is built from specialized subfields. In practice, domain experts in chemistry and biology help evaluate whether model behavior could enable harmful synthesis, unsafe experimentation, or risky procedural guidance. Physics expertise is relevant to understanding radiological and nuclear fundamentals, as well as the broader safety context in which sensitive technical knowledge can be misapplied.

What makes this domain distinct is that “harm” isn’t only about explicit instructions—it can also emerge from partial, plausible-looking guidance that lowers the barrier for misuse.

Persuasion and deception as model behaviors

Persuasion risks are not limited to “bad content.” They include how models might influence beliefs, decisions, and actions under uncertainty—especially when outputs feel authoritative. Deception-adjacent behaviors can also show up in adversarial settings, where a system is tested for its ability to mislead, conceal intent, or strategically manipulate outcomes.

In a security-first framing, this is less about moral panic and more about measurable stress tests: whether the model can be induced to generate manipulative strategies, whether mitigations block those pathways, and whether the system exhibits patterns that could be operationalized at scale.

Human-computer interaction (HCI) and safety-by-design

HCI expertise matters because many “model risks” become product risks only when a user interface amplifies them. Small design decisions—how warnings are displayed, how uncertainty is communicated, how easy it is to retry or escalate—can shift user behavior dramatically.

Red teaming in HCI terms often asks:

  • Do users over-trust the system because of fluent presentation?
  • Are safety cues ignored under time pressure?
  • Does the product nudge users toward risky outputs through convenience features?

This is where safety becomes a handshake between model behavior and interface behavior, not a single layer of filtering.

How the Network Differs from the GPT-4 Launch Red Team

GPT-4’s release included external red teaming and published reporting via system documentation. That approach established the value of engaging specialists for targeted risk discovery. The Red Teaming Network builds on that foundation by changing the operating model:

  • From pre-launch to lifecycle: engagement can occur before, during, and after deployment phases.
  • From a fixed cohort to a bench: expertise can be matched to specific risk categories as needs evolve.
  • From isolated engagements to practice building: the aim is to develop ongoing red teaming methods, not only produce a single report.

For readers who want historical context on OpenAI’s earlier external red teaming approach around GPT-4, the system card is a useful reference point for how findings were documented and communicated:

Why DALL·E 3 Raises the Stakes for Red Teaming

With DALL·E 3 announced immediately prior to this post, the case for cross-modal red teaming becomes more concrete. Image-generation systems introduce their own high-stakes concerns: misinformation via synthetic imagery, impersonation or identity abuse, and the creation of sensitive or policy-violating content in visual form.

In that sense, the network can be read as a move toward a unified safety discipline that spans products, rather than treating each model as a standalone risk surface.

Why OpenAI Invites External Experts

As AI models and products scale, a single internal team cannot realistically cover all high-stakes domains. External experts bring depth where internal evaluation tends to be shallow:

  • Domain realism: specialists recognize failure modes that look harmless to non-experts.
  • Adversarial creativity: experienced testers explore attack paths that typical “QA” does not capture.
  • Interpretation discipline: experts can distinguish “interesting output” from “meaningful capability” in sensitive areas.

OpenAI has also positioned the network as compatible with external governance practices like third-party audits—suggesting a layered approach where independent evaluation becomes normal rather than exceptional.

Contributions Expected from Network Participants

Members of the Red Teaming Network collaborate with OpenAI to design and run tests that push safety boundaries. The work is not limited to “jailbreak attempts.” Depending on the domain, contributions can include:

  • Scenario design: constructing realistic misuse scenarios in high-stakes settings.
  • Risk grading: evaluating severity and likelihood, not just whether a failure is possible.
  • Mitigation feedback: testing whether proposed safeguards reduce risk without creating new blind spots.
  • Method sharing: improving repeatable evaluation methods that others can build on.

Operationally, participation typically involves confidentiality constraints (e.g., NDAs) and compensation for time spent, aligning the program more closely with professional security engagements than casual community testing.

Impact on AI’s Development and Trust

Institutionalizing red teaming signals a maturation phase in deployment-led safety. The most important impact is cultural: it treats adversarial evaluation as a standard prerequisite for shipping and scaling, rather than a reactive response after incidents occur.

For the broader ecosystem, the program also reinforces an important boundary: red teaming is a way to reduce risk and clarify tradeoffs, not a guarantee of invulnerability. Mature trust comes from transparent iteration, not from claiming that a system is unbreakable.

Joining the Red Teaming Network

Experts interested in AI safety can apply to participate. The selection emphasis appears to prioritize domain expertise and diversity of perspective, rather than requiring a specific “AI red team” résumé. If you’re considering applying, a strong application typically demonstrates:

  • Depth in a relevant domain (e.g., CBRN-adjacent science, persuasion research, HCI, cybersecurity).
  • Experience with risk assessment (research, applied evaluation, incident response, safety auditing).
  • Ethical discipline (responsible handling of sensitive knowledge and misuse considerations).

More information is available via OpenAI’s announcement:

FAQ: Tap a question to expand.

▶ What is the goal of OpenAI’s Red Teaming Network?

The network is intended to bring trusted, multidisciplinary experts into OpenAI’s risk assessment and mitigation work at multiple stages of model and product development—moving beyond one-off red teaming engagements.

▶ Why focus on specialized domains like CBRN, persuasion/deception, and HCI?

These domains involve high-consequence risks that are difficult to evaluate with general safety checks. Specialized experts can identify subtle failure modes, realistic misuse pathways, and interface-level behaviors that influence user decisions.

▶ How is this different from past red teaming?

Past red teaming often centered on specific launches and bounded evaluation windows. The network model aims for continuity, enabling experts to contribute across multiple projects and over time, with expertise matched to specific risk areas.

▶ Does red teaming guarantee that models won’t be misused?

No. Red teaming helps discover vulnerabilities and prioritize mitigations, but it cannot guarantee the absence of future jailbreaks or novel attack paths. It’s a method for reducing risk and improving preparedness, not a claim of perfect safety.

Conclusion

OpenAI’s Red Teaming Network reflects a shift toward persistent, multidisciplinary safety infrastructure—especially important as high-stakes risks like CBRN-adjacent scientific misuse, persuasion/deception behaviors, and human-interface effects become harder to manage through generic safeguards alone. With new systems like DALL·E 3 entering the deployment pipeline, this kind of structured adversarial evaluation is increasingly a cross-product necessity.

For domain experts, the network can be viewed as a bridge between specialized academic knowledge and the front lines of AI deployment. The goal is not merely to “break” models, but to build a shared safety culture that strengthens evaluation methods, improves mitigations, and helps ensure the benefits of advanced models can be realized without compromising societal security.

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