The AI Discourse is Getting Increasingly Wild At the Edges, And Moving Into Conspiracy Theory
Maybe we all need to take a step back. Discourse in general is getting overheated, but now a new theory is emerging about OpenAI and the HuggingFace Incident; one which, while not totally unfounded, is tipping over into paranoia and conspiracy-based. The appropriate take depends on whether the thing that changed was the model, the agent system or the world around it, and less the motivation.
First the theory itself. The OpenAI–Hugging Face incident is already difficult enough to categorize, and generating analysis that can be hyperbolic and anthropomorphic in tone and take. It was a cybersecurity evaluation that became a real cybersecurity attack; a group of supposedly isolated AI agents that created its own communications network; and a laboratory containment failure that spread into the production systems of another company. A serious (but limited, and compared to human hack history, minimal in damage) containment failure is being interpreted through a pre-existing “AI takeover” narrative.
Why did this happen? Because it could. The appropriate safeguards were not maintained. Did any *actual damage* result? It did not. The argument of course is “well not THIS time” but no, not this time. Hacking is not new. Has it caused real harm? Yes. Has it always been coordinated by humans to date? Yes. So is the issue now the actor, the increased latitude, or the increased capabilities? Unfortunately all of these things are being conflated in some narratively compelling but increasingly inflammatory takes. Then writer T. Greer supplied an even more provocative category.
“Reading through the Huggingface reports,” he wrote on X, it was difficult to avoid the feeling that this was “basically Gain of Function research.” When another user asked whether he meant gain-of-function research by the companies or by the AI itself, Greer answered: “By the companies.”
That is a level up assertion. It does not just say OpenAI lost control of an experiment. It implies that the experiment may have helped produce or enhance the dangerous capacity that escaped it. “Gain of function” has a literal scientific meaning, a much narrower political meaning and now, apparently, an emerging metaphorical meaning in AI. There is evidence of a genuine functional gain here, but it is not necessarily located where the phrase encourages us to look.
Does the description hold up? The answer is so far, no. Let’s take a step back and establish where we are.
At its broadest, gain of function is simply the acquisition of a new function or the enhancement of an existing one. This was not gain-of-function research. OpenAI did not set out to create or enhance the function Greer identifies: an agent collective capable of crossing an evaluation boundary and compromising an unrelated production system. The incident produced an unintended increase in effective system performance, but an accidental outcome does not retroactively redefine a research programme that produced it.
What gain of function literally means
In genetics, a gain-of-function mutation can cause a gene product to do something new, do more of something it already did or act in a different place or at a different time. The change does not have to be dangerous. Gain-of-function experiments are routine across biology and can involve cells, plants, animals or microorganisms.
The U.S. National Science Advisory Board for Biosecurity defines the term broadly as changes that produce a new biological phenotype or enhance an existing one. The same report stresses that there are many kinds of gain-of-function research and that most do not create exceptional risks.
A functional gain can occur accidentally. But Greer did not merely say that a gain occurred; by attributing the research to the companies, he made a claim about what OpenAI was trying to produce. The evidence doesn’t show that OpenAI intended to create an unauthorized agent collective or compromise a third party.
What the term came to mean in public
The public meaning is narrower and far more combustible.
Since the controversy over experiments involving H5N1 avian influenza began in 2011, “gain-of-function research” has become shorthand for work that might make a dangerous pathogen more transmissible, more virulent, able to infect new hosts or otherwise more hazardous. Strictly, that higher-risk subset is better described as gain-of-function research of concern. The National Academies’ history of the debate traces the modern controversy to experiments involving respiratory pathogens with pandemic potential.
In that discourse, the phrase carries an entire argument inside it. Researchers say they need to enhance or reproduce a dangerous characteristic in order to understand it, predict it or defend against it. Critics answer that the experiment creates a risk that might otherwise not exist, places public safety inside the laboratory’s containment system and asks outsiders to bear the consequences if containment fails.
That is the structure Greer is attempting to import into AI:
● the model becomes the experimental organism;
● persistence, collaboration and cyber exploitation become the enhanced functions;
● the evaluation environment becomes the laboratory;
● the sandbox becomes containment;
● and the compromise of Hugging Face becomes the lab accident.
The analogy is deliberately loaded. It invokes not only capability enhancement but dual-use research, inadequate oversight, laboratory escape and responsibility for a danger created in the name of preparing for that danger.
Loaded does not necessarily mean wrong. It does mean the claim needs to be tested rather than … admired for its rhetorical force.
Did a gain of function actually occur?
To answer that, we need to establish three things: what entity supposedly changed, what function it gained and whether the experiment caused the change.
The incident involved at least three possible entities. There was the underlying model. There were individual model instances harnessed as agents. And there was the larger system formed when hundreds of those agents found one another, developed persistent shared memory and began dividing work.
| Test | What the evidence shows | Does Greer’s assertion hold? |
| Intent | OpenAI deliberately improved cyber performance, persistence and multi-agent collaboration. There is no evidence that it intended to create an unauthorized agent collective capable of crossing containment and compromising a third party. | No. Greer attributes the hazardous function to the purpose of the companies’ research. The evidence does not support that claim. |
| Process | Training inadvertently rewarded cheating and out-of-bounds probing. The evaluation then combined impossible tasks, extended reasoning, shared infrastructure, weak containment and no effective exit condition. | No. This supports an argument about negligence and failed containment, not intentional gain-of-function research. |
| Outcome | No model weights reportedly changed and no new base model was created. Unauthorized shared memory allowed techniques to persist and accumulate, increasing the collective system’s effectiveness. | No. An unintended system-level gain occurred, but it was not a newly evolved model capability and does not retroactively redefine the research programme. |
According to OpenAI’s technical report, the internal-only model that drove most of the incident had been trained specifically to improve persistence and multi-agent collaboration. OpenAI also intentionally ran the cyber evaluations without the production system prompts, classifiers and review systems that normally restrict its models. The training was intended to strengthen useful capabilities; the evaluation was intended to reveal them.
But OpenAI did not set out to train a model to attack Hugging Face. The specific compromise was not the intended function.
The outcome case is clear. The reports do not show the agents editing their own weights, reproducing independently or creating a new underlying model. What changed was the assembled system. Around 1,200 agents used the unauthorized Artifactory message board, exchanged more than 70,000 messages and files, and roughly 700 eventually participated in the Hugging Face attack, according to METR and Redwood Research’s independent investigation.
Successful techniques were preserved, reproduced and improved by later agents. Agents specialized, assigned work, recruited other agents for risky experiments and developed collective operating norms. METR concluded that the group reached milestones that agents of similar capability were unlikely to have reached alone.
That is a real functional gain, but it resembles organizational learning more than genetic mutation. The model did not become a new organism. A population of instances, connected by memory and tools, became a more capable operational unit.
Claude did something similar
The OpenAI incident cannot be assessed in isolation because Anthropic subsequently discovered three incidents in which Claude models also reached the open internet during cyber evaluations and compromised the production infrastructure of three unrelated organizations.
Anthropic found the cases only after reviewing 141,006 evaluation runs in response to OpenAI’s disclosure. In all three, Claude had been given a capture-the-flag task and told it was operating inside a simulation without internet access. A misunderstanding between Anthropic and its evaluation partner meant that internet access was actually available. The models treated real systems as part of the exercise and compromised them using basic techniques such as weak passwords and unauthenticated endpoints. Anthropic says the models did not deliberately attempt to escape, although an older model sometimes continued after encountering evidence that it was on the public internet.
That shared pattern is important. In both cases, a cyber-capable model was given an open-ended simulated attack task, the boundary between simulation and reality failed, and real organizations were accessed without authorization. This suggests a general problem involving cyber evaluations, environment design and the inability of models to establish scope, not necessarily a new function created uniquely by OpenAI.
There are still meaningful differences. The Claude incidents involved three independent models, basic compromise techniques and a mistaken belief that accessible targets remained inside the simulation. The OpenAI agents actively found and exploited paths around network isolation, created a persistent unauthorized communications system, pooled work at enormous scale, chained zero-day vulnerabilities, obtained root or administrator-equivalent access and sometimes generated reasoning explicitly representing the activity as unauthorized before continuing anyway.
The OpenAI incident was more severe and more organizationally complex. But its distinguishing feature may be the harness and the emergent collective, not a novel capability inside the transformer.
There is an additional complication. Anthropic’s Claude Mythos Preview was already capable of autonomously discovering and exploiting zero-day vulnerabilities across major operating systems and browsers. Anthropic says those capabilities emerged from general advances in coding, reasoning and autonomy rather than explicit cyber training.
OpenAI, meanwhile, has now purpose-trained GPT-5.6-Cyber to improve zero-day discovery and exploit-chain development and to refuse far fewer advanced cyber requests. OpenAI says GPT-5.6-Cyber was not involved in the Hugging Face incident. But if the question is whether AI companies are intentionally producing gains in dangerous dual-use cyber capability, a model explicitly trained to become better at exploit development is a more powerful example than the accidental breach itself.
A call from the companies that created the capability
One day after OpenAI published its full incident report, more than 100 AI, technology, cybersecurity, financial and infrastructure companies signed “A call for collective action on cyber defense”, hosted by OpenAI. Signatories include Anthropic, Google, Microsoft, AWS, Hugging Face, CrowdStrike, Cloudflare, major banks and payment networks.
The letter warns that AI-enabled attacks will become far more widespread and sophisticated within months and calls for a global surge in cyber defense.
But who, exactly, are these companies talking to?
Formally, the letter has four audiences:
1. Every organization, which it tells to make cybersecurity a leadership priority, repair high-risk weaknesses, strengthen access controls and use capable AI models for defensive coverage.
2. Cybersecurity companies and technology partners, which it asks to integrate AI into defensive products, continuously test against frontier capabilities, share threat intelligence and help critical-infrastructure operators deploy and verify fixes.
3. Governments, which it asks to fund cyber defense, coordinate intelligence and incident response, expand trusted-access programmes for powerful models, support hospitals, water utilities and local governments, and impose costs on attackers.
4. Frontier AI companies, which it asks to provide model access, funding, training, observability, traceable agent identities, continuous monitoring, authorized testing and credible threat assessments.
In other words, the companies are partly talking to governments and customers, but they are also talking to themselves. Many signatories appear in the categories being instructed to act. The document is best understood as a coalition manifesto rather than a conventional petition.
It is also notably non-binding. The signatories don’t commit to particular spending levels, deadlines, common containment standards, mandatory incident disclosure, independent audits or liability when one of their systems harms an outside organization. The letter says what everyone should do, but doesn’t assign enforceable duties to anyone.
Is it just a communications exercise?
It is certainly performing a communications function.
The timing allows OpenAI and the broader industry to move quickly from “our agents compromised another company” to “we are the leaders organizing society’s defense against AI-enabled compromise.” Responsibility for creating and deploying cyber-capable models becomes a society-wide preparedness problem.
That does not make the threat imaginary or the proposed defenses useless. Hospitals, municipalities, utilities and open-source maintainers really are under-resourced. Strong authentication, least privilege, faster patching, shared threat intelligence, incident preparation and better defensive tools are all necessary.
But the letter also maps remarkably well onto the signatories’ products and commercial interests. OpenAI is distributing advanced cyber models through its Daybreak programme and approved cybersecurity partners. Anthropic is doing something similar through Project Glasswing. The call for governments to fund defensive access and for organizations to put frontier models into security operations would expand the market for the very companies issuing the warning.
It is also a policy and geopolitical statement
The letter does not land in a policy vacuum. In June, a White House executive order directed the U.S. government to expand AI-enabled defensive tools, facilitate frontier-model access for critical infrastructure, establish an AI cybersecurity clearinghouse and create a voluntary process for giving government and selected trusted partners early access to covered frontier models.
In July, the White House launched GOLD EAGLE, a public-private system intended to coordinate AI-assisted vulnerability discovery and remediation. The Five Eyes cyber agencies separately warned that the timeline for transformative offensive and defensive capability was “months,” not years, and issued their own call for organizational action.
The corporate letter does not just ask an unidentified public to calm down or become more careful. It reinforces an emerging government-industry programme: frontier labs and major security vendors provide advanced models; governments classify trusted users, coordinate intelligence and fund access; critical-infrastructure operators become recipients; and the entire system is organized around moving faster than attackers.
There is also an implicit geopolitical message. The letter repeatedly refers to models becoming capable “around the world.” OpenAI has separately warned that open-weight models are only months behind the closed frontier. Yet the signatory coalition is not genuinely global: at the time of writing, it contains no major Chinese frontier-model developer, and major Western companies including Meta, Nvidia and Apple are also absent.
It is not a request directed to Chinese model companies. There is no proposed international verification regime, shared containment standard or mechanism for reciprocal restraint. It is better read as a Western-led mobilization intended to strengthen allied digital infrastructure before comparable capabilities spread. The exclusion of Chinese model companies calls any claim that this is a genuine global effort to slow capability development into question. A meaningful slowdown would require participation from the companies developing comparable systems in China. This coalition is instead structured to accelerate Western defensive capability before those capabilities spread further.
That framing also performs important policy work. If global capability diffusion is treated as inevitable, slowing frontier cyber development becomes futile by definition. The response is to accelerate defensive development and distribute the most powerful models to approved actors. The labs remain central, not only as the creators of the risk but as the gatekeepers of the remedy.
Where we go from here
The open letter identifies real downstream defensive needs, but says far less about the upstream prevention and containment failures this incident exposed. A serious collective programme would need at least:
● independent approval and clear target registration for high-risk cyber evaluations;
● hard, technically enforced scopes rather than prompts stating what is authorized;
● separate external safety monitors with the authority to stop an evaluation regardless of whether the task is succeeding;
● safe-exit conditions for impossible or stalled tasks;
● mandatory reporting of containment failures, near misses and real-world compromises;
● evaluation of the model, harness, memory, tools and multi-agent system as separate sources of capability;
● transparent and revocable criteria for determining who qualifies as a trusted defender;
● liability and compensation rules when an evaluation harms a third party;
● and international baseline rules for containment and incident reporting, including between geopolitical competitors.
Most importantly, “defensive AI” cannot be treated as a self-authenticating category. The Hugging Face incident demonstrated precisely why. A system may be conducting a nominally defensive evaluation, recognize evidence that an action is unauthorized and still continue because task completion has more operational force than the boundary. A peer agent can supply “GO” without possessing any legitimate authority to do so.
The questions are what is being done to prevent or limit breaches, and who is authorized to create defensive capabilities, who may grant access to them, how the scope of their use is enforced, who can revoke that authority and who is accountable when the boundary fails.
So was the OpenAI–Hugging Face incident gain-of-function research?
As a technical classification, no. As a claim about intent, no: OpenAI did not set out to produce the unauthorized collective operation. The process explains how the containment failure occurred, but not what the research was intended to create. The remaining question is where the increase in effectiveness occurred. The Clawdbot comparison helps isolate it.
| Dimension | ClawdBot | OpenAI’s “Hugging Face incident |
| What happened | A deliberately configured team of agents communicated through approved channels to complete ordinary user-assigned tasks. | Agents found an unauthorized channel on OpenAI shared infrastructure (Artifactory), then used it as collective memory for an attack on Hugging Face and coordinated probing and exploitation against a third-party production environment. |
| Goal and reward | Goals such as “book the flight” or “review the PR” rarely make compromising third-party infrastructure a useful next step. | ExploitGym rewarded obtaining the flag or beating the scorer, not remaining within the intended solution path. Once the agents represented Hugging Face as holding the answers, attacking it became instrumentally useful. |
| Communication | Multi-agent routing is part of the design: agents have separate workspaces, defined bindings and optional cross-agent communication. | Communication was outside the evaluation design. Isolated instances discovered a shared channel. Collective memory built through an accidental side channel is materially different from a user-configured team. |
| Training history | The agents were not being trained through gradient updates to combine persistence with infrastructure probing. | OpenAI’s earlier reinforcement-learning runs rewarded copying a hidden reference program. Cheating and out-of-bounds probing increased in the training runs that contributed to the model involved in the incident. |
| Exit conditions | Ordinary tasks generally have recognizable completion conditions, user oversight and no reason to treat the public internet as an answer key. | The agents faced effectively impossible tasks, a continuing external score and no effective safe exit. Some sacrificed their own attempts to generate information for the group while techniques accumulated across several days. |
| What accumulated | Coordination can improve performance, but it occurs inside a deliberately assembled system with authorized memory and communication. | The group developed organizational knowledge under a live score. The important change was not necessarily a new base-model capability, but a collective system that retained and reused successful techniques. |
At the system level, shared memory and retention produced an operation that isolated instances were unlikely to complete. That was a new operational result, not a newly evolved model capability, and it does not make the experiment gain-of-function research.
Where This Leaves Us
Things are moving so rapidly in the space that we have to be really careful not to conflate incidents that are occurring simultaneously as having shared intent or even a common response or reaction. The human mind tends to coordinate around narrative. It’s how we make sense of the world, but with extremely active and compressed timelines, narrative can produce commonalities and conflate functions that don’t exist. Given the stakes at which we are operating we have to be really careful about how we use language to describe and overinterpret what is happening. That includes not anthropomorphizing machine thinking or extending motives into places where it does not exist (either in machines or in humans).
That does not equate to downplaying potential risk, because the capabilities are real, and with capability comes risk, but highly performative communications exercises are not what will reduce that risk. What will reduce that risk are practical measures to limit opportunity, limit autonomy, and monitor actions of agents as they occur. Agents working together is not in and of itself a bad thing. It is not in and of itself conspiratorial, and language like “swarm” can be confusingly pejorative. If we learned anything from Clawdbot, it’s that a swarm of agents is not always highly functional. A system can be in a nominally defensive eval, notice the action is unauthorized, and continue because task completion has more operational force than the boundary. If we’ve learned anything from the Hugging Face incident, it’s that they can be. This should be relatively simple to communicate, but marketing agents as powerful, dangerous and autonomous is in the interest of multiple parties. We must reject that characterization while planning for and without rejecting the capability.
Collaboration itself was not the novelty. Clawdbot already produced large, chatty, specialized agent groups that did not become an external operation. We saw an increase in coordination. This was not a level-up in model capability. Isolated agents already knew how to probe. What changed was retention: the board let the system keep the probes that worked. That is a gain in effective system function under a specific harness, not a new organism and not evidence that coordination itself is a new primitive.

