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Friday, July 24, 2026

The Queen or the Swarm: Why AI’s Future Depends on Who Gets to Learn


The detailed version of my oped in Transcontinental Times 

Every species that has ever competed for resources on this planet has done so with roughly the same toolkit: strength, speed, camouflage, venom, numbers. Humans are unremarkable on most of these axes. We are slower than a cheetah, weaker than a chimpanzee, blinder in the dark than an owl, and worse at smelling danger than almost anything with a snout. What we do better than any other species, by an order of magnitude no other animal comes close to, is cooperate with strangers at scale.

A wolf pack cooperates. So does a beehive. But a wolf will not lay down its life for a wolf it has never met from a pack three mountains away, coordinated by a shared story none of them witnessed. Humans do this routinely. We show up at war memorials for people we never knew, buy shares in companies run by executives we’ve never met, and hand savings to banks based on nothing but a shared belief that the institution will honor its promises. Yuval Harari’s core insight in Sapiens, that humans are unique in our capacity to organize around shared fictions: nations, currencies, corporations, human rights, describes exactly this. None of these things exist as physical objects. They exist because enough people agree to act as if they do, and that agreement is what lets seven strangers organize a supply chain across four continents.

That capacity has a name in organizational theory: institutionalized trust. And it has a delivery mechanism: communication, first spoken, then written, then encoded into the procedures, contracts, and bureaucracies that let a stranger in Rotterdam trust a signature from a stranger in Chennai. Bureaucracy earns a bad reputation as red tape, but at its root it is a trust technology, a set of standardized procedures that lets unrelated people transact without needing to personally verify each other’s character. Double-entry bookkeeping, the joint-stock company, the postal system, the passport, these are all inventions in the same category as language itself: tools that let cooperation scale past the roughly 150 people (Robin Dunbar’s famous number) that our brains can track through personal relationship alone.

Physical technology has always ridden alongside this social technology, amplifying it. The wheel didn’t just move goods faster, combined with standardized axle widths and road networks, it made regional trust networks viable at distances no courier on foot could sustain. The printing press didn’t just reproduce text,  by making the Bible, and later pamphlets, newspapers, and scientific journals, available to anyone literate, it broke the monopoly that scribal elites held over what counted as agreed-upon truth, and in doing so it re-founded whole religious and political orders. The telegraph, the telephone, the internet: each one is, underneath the marketing, a new trust-and-coordination layer stacked on the ones before it.

Now comes artificial intelligence, and it is not just another rung on that ladder. It is different in kind, because for the first time the tool doesn’t merely transmit human-generated trust signals faster ,  it can generate judgment, synthesis, and decisions on its own. That changes the question. It’s no longer just “how fast can strangers coordinate” but “who gets to do the coordinating, and on whose behalf.”

There are two directions this can go, and they lead to very different civilizations.

The first direction: the Borg model

A small number of frontier labs - right now, realistically, a handful of companies in two countries - train models on a scale of data and compute that nobody else can replicate: the entire searchable internet, increasingly private data through partnerships and acquisitions, and enough proprietary usage logs from hundreds of millions of daily conversations to know how people think, argue, and decide better than the people know themselves. Everyone else becomes a client, querying a central intelligence that has never revealed what it learned about them to anyone but itself. It is not an accident that the Star Trek Borg is the right metaphor: a distributed set of drones, individually unremarkable, whose intelligence is aggregated upward into a Queen who alone sees the whole picture and alone decides. Assimilation doesn’t require malice. It only requires that everyone’s data flows one way  upwards ,  while judgment flows back down as a service.

The second direction: diffusion

Instead of one model trained on everyone’s data and queried by everyone, imagine a nested architecture of intelligence that mirrors the way trust itself has always scaled in human societies - from individual to family to community to nation, each layer adding coordination without fully surrendering what came before it. A personal model that learns primarily from an individual’s own history and stays substantially theirs. A household-level router that reconciles the family’s shared needs,  finances, schedules, health, without exporting the raw data to any central party. Community and institutional layers that pool just enough signal to coordinate like a hospital network sharing anonymized treatment outcomes, a farming cooperative sharing yield data and so on without surrendering the underlying record. National or civilizational layers that federate further still, for the genuinely public-goods problems: pandemic response, climate modeling, financial stability. Intelligence increases with altitude, but so does the friction required to extract raw data upward. This is closer to how evolution actually organizes complexity -  through modular, semi-autonomous units that coordinate without fully centralizing control - than the single-brain model the Borg represents.

The diffusion model is the one worth betting on, but it is worth being honest about why it isn’t automatic. Model weights being “open” or a chatbot running locally on a phone does not, by itself, redistribute power. Underneath even the most local-feeling AI product today sits a stack that is still extremely concentrated: pretraining compute that only a few labs can afford, chip design and fabrication controlled by a handful of firms in a handful of countries, and energy infrastructure that is itself a scarce, geopolitically contested resource. An open-weight model trained on a closed, centrally-scraped corpus is diffusion in name and centralization in substance , a longer, more comfortable road to the same Queen. If this century’s version of the printing press turns out to require a printing press factory that only three governments can build, the diffusion story collapses into the Borg story with better marketing.

There is, however, an answer to the training problem, and it comes from the closest analogy available: how humans themselves acquire capability. Every human being is “pretrained” on a broad common corpus - language, schooling, the accumulated knowledge of a culture - before developing anything distinctive. Universal education does not centralize human intelligence; it equips each mind to then learn recursively from its own experience, in directions no curriculum planned. The base model can play the same role: a common endowment, trained once on broad public data, the way a public education system is funded once for everyone. Diffusion becomes real at the point past that endowment , when each node in the hierarchy, whether an individual, a household, a firm, or a community, holds not merely a copy of the model but the capacity to keep learning from what it alone can see, and when the owner of that node decides what portion of the learning is exposed upward. This mirrors how capability has always worked in human society. A doctor shares her diagnosis, not the decade of pattern recognition behind it; a firm sells its product, not its process knowledge; a family teaches its children things it would never publish. Skill and disclosure have always been separable, and that separability is precisely what a query-everything-through-the-center architecture destroys - the center learns from every interaction, while the individual accumulates nothing that is durably theirs.

Honesty requires admitting that this recursive-learning-at-the-edge capability does not fully exist yet. Most of what is marketed today as personalization is retrieval: the model consults an individual’s documents and history at query time without changing itself, which means the accumulated learning still lives wherever the model lives. Genuine local learning,  models that update themselves from experience, cheaply, on modest hardware, without catastrophically forgetting what they already knew remains a hard, open engineering problem. The technical trajectory, to be fair, is bending in the right direction: models keep getting smaller for a given level of capability, techniques for cheap adaptation keep improving, and consumer chips now ship with dedicated neural hardware as a matter of course. What is not bending is the commercial trajectory. The economics of every frontier lab reward keeping the learning loop at the center, because centrally accumulated learning is the moat, the more the central model learns from everyone, the harder it becomes for anyone to leave. So the two trajectories diverge: feasibility is diffusing outward while deployment keeps concentrating inward, and it is precisely in that gap that policy has work to do. Recursive learning at the edge will not be handed down by incumbents whose business model it undermines; waiting for the market to deliver it is like waiting for the scribes to distribute the printing press. It has to be pulled forward deliberately  by public research funding, by procurement rules that require publicly purchased AI systems to support local learning and owner-controlled disclosure, and by writing the principle that the learning stays with the learner into data protection law, the way purpose limitation was written in a generation ago.

So the honest version of the bet is not “small models will save us.” It is that diffusion has to be built deliberately, at every layer of the stack, the way earlier trust infrastructure was built deliberately, through standards, law, and public investment, not left to emerge on its own from a market that has every incentive to concentrate.

There is precedent for exactly this kind of deliberate construction, and it is worth pointing to because it already exists rather than remaining hypothetical. India’s approach to digital public infrastructure - a unified payments protocol that any bank or fintech can plug into rather than routing transactions through a single dominant platform, a verifiable-credentials system that lets individuals hold and share their own documents rather than surrendering them to a central database, and an open commerce network that lets buyers and sellers transact across competing apps rather than being locked into whichever platform got there first,  is essentially an attempt to build trust infrastructure as a shared, low-lock-in utility rather than as proprietary rails owned by one company. It is not a perfect model and it has real gaps, but it demonstrates something important: that population-scale coordination doesn’t require a single controlling entity if the protocol layer is deliberately kept open and interoperable. The lesson for AI is not “copy this system” so much as “copy the design principle”, build the equivalent of open rails for identity, data portability, and model access, so that intelligence can be composed from below rather than only distributed from above.

What would that take in practice? A few concrete interventions, none of them exotic:

         Data portability as an enforceable right, not a feature,  so an individual’s interaction history can move with them between AI providers the way a phone number now moves between carriers, preventing lock-in from doing quietly what outright control could not do openly.

         Public or multilateral investment in compute and energy capacity outside the two or three countries that currently dominate it, on the model of how public investment built highways and rural electrification rather than waiting for private markets to reach unprofitable places on their own schedule.

         Interoperability standards for model-to-model and agent-to-agent communication, so a household-level or community-level system can coordinate with a national one without needing to be owned by the same company that owns the national one,  the AI equivalent of the postal system agreeing on envelope sizes.

         Regulatory pressure specifically aimed at the infrastructure layer,  chips, cloud capacity, energy contracts , rather than only at the visible chatbot layer, since that is where real concentration risk is currently accumulating fastest and most invisibly.

         A cultural shift among the capable middle tier of nations, those with talent, institutions, and ambition but not frontier-lab-scale capital, toward building shared, federated capability with each other rather than each negotiating bilaterally and separately with the handful of dominant labs, which only reproduces a hub-and-spoke Borg structure one client relationship at a time.

Sceptics of the diffusion path will point out, correctly, that some problems genuinely need a Queen, or at least a very large brain. Pandemic modelling, climate prediction, and fundamental scientific discovery benefit from the kind of massive, centralized compute that only a handful of institutions can field, and no household-level router is going to fold a protein or model a hurricane. The diffusion argument is not that centralized capability should not exist. It is that centralized capability should be treated the way we treat other infrastructure with natural concentration risk, nuclear power, undersea cables, the electrical grid,  as a public utility subject to oversight, access rules, and accountability, rather than as the private property of whichever company got there first. The European Union’s AI Act, whatever its flaws in execution, is at least an attempt to draw that line: to say that as models approach systemic scale, the obligations on their operators should scale with them. Export controls on advanced chips are a cruder version of the same instinct, aimed at slowing the concentration of the compute layer rather than the software layer, even if their current form is more about geopolitical rivalry than about distributing power more broadly.

And the early scaffolding for genuine diffusion is already visible. Federated learning in healthcare, hospitals training shared diagnostic models by exchanging model updates rather than patient records,  demonstrates that collective intelligence does not require pooling raw data in one place. On-device inference, now standard on flagship phones, means a growing share of everyday AI use never has to leave the device at all. Neither fully solves the concentration problems described above, but both show that the direction is technically viable; what is missing is the institutional will to deploy such architectures at population scale rather than leaving them as premium features for those who can already afford to ask.

Humanity’s edge was never raw intelligence. It was the invention of trust technologies that let intelligence combine across strangers without requiring a single mind to hold it all. Writing, law, currency, and bureaucracy did this by distributing judgment while standardizing the interface between people. Whether AI becomes a fifth trust technology in that lineage, or the tool that finally lets a single mind hold it all, is not a question that resolves itself as models get better. It resolves according to who builds the rails underneath them, and how deliberately the rest of us insist that those rails stay open. That is a choice still being made, right now, mostly in rooms far from public view — which is exactly why it needs to be argued for in public.

 

"We taught the whole species to read. We did not hand every book to one reader."

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