Holy Cow Studios · AI Order Research · Paper Two
holycowstudios.inArtificial intelligence, ownership, and the architecture of the next economy.
Second edition · August 2026
The short version
Four American companies will spend around $700 billion on AI infrastructure this year. India's entire national AI programme is $1.25 billion. That is not a gap in ambition. It is a gap in who gets to own the next economy.
For two hundred years the thing production most needed was human labour — and almost everybody owned some. That is what gave ordinary people a claim on what the economy produced. You could withhold your work, and so you could bargain.
AI shifts what is scarce. Not labour now, but compute, models and data — three things that can be bought, fenced and stockpiled in a way human capability never could. When the scarce input moves from something everyone owns a little of to something almost nobody owns, economic power moves with it. Quietly, and long before any factory closes.
This is already measurable. The IMF finds that even when AI grows the economy, capital and wealth inequality "always increase" in its models — because the gains go to whoever owns the machines. In its own simulation, high earners gain seven times what low earners do.
But none of this is decided by the technology. The same models are being fed into three very different sets of rules — a capital-led United States, a rights-led European Union, a state-coordinated India — and they are producing three different economies. If the technology were deciding, those three would be converging. They are pulling apart.
Which is the good news, and the point of this paper. The future is not a forecast to wait for. It is a design problem, and it is still open. What decides it is not who builds the best model but who owns the compute, the models, the data — and who receives what they produce.
The argument in one page — the ending, told first
Artificial intelligence is being managed as an automation story. It is better understood as a change in what the economy treats as scarce — and therefore in who holds economic power.
For two centuries the input most central to production was human labour, an asset distributed — however unequally — across the entire population. AI is shifting the centre of gravity toward three assets that are not so distributed: compute, models and data. These can be owned, fenced and concentrated in a way that human capability never could. That single shift, more than any headline about job losses, is what makes AI a question about the architecture of the economic system rather than merely its efficiency.
The evidence already points one way. Private AI investment is extraordinarily concentrated. The four largest US hyperscalers alone are on course to spend on the order of US$700bn on AI infrastructure in 2026 — more than five hundred times India's entire national AI mission. The IMF finds that while AI may raise output, capital and wealth inequality “always increase” in its models, because the returns accrue to the owners of the machines.3 The productivity prize is real but contested: sober estimates put the gain near 1% of GDP over a decade, against consultancy forecasts an order of magnitude larger.2
Yet nothing here is technologically determined. The same models are being absorbed into three visibly different institutional settings — a liberal, capital-led United States; a rights-and-regulation European Union; a state-coordinated, infrastructure-first India — and they are producing three different political economies. That is the paper's central finding: AI sets the technological possibilities; institutions, ownership and political choice decide which economy we actually get.
We therefore urge decision-makers to stop treating AI as a procurement question and start treating ownership as the strategic and policy object: who owns the compute, the models, the data, and the surplus they generate. The most robust destination is not a single system but a deliberate mosaic — competitive markets where they work, public and commons infrastructure where concentration is dangerous, and a redistribution of AI's rents broad enough to keep the social settlement intact.
AI does not choose our economic system — ownership does; and on present trends a handful of firms will own the intelligence the whole economy runs on, unless institutions decide otherwise.
Act I — the stakes
The public conversation about artificial intelligence has organised itself around a single, strangely comforting question: will AI take our jobs? It is comforting because it is familiar. We have asked it of every general-purpose technology since the spinning jenny, and the historical answer has always eventually been reassuring: old work disappears, new work appears, and after a painful interval the economy employs more people at higher wages than before.
On this reading, AI is the latest in a lineage — steam, electricity, the assembly line, the computer, the internet — that raised output per worker and, in time, living standards. Ownership does not enter the story, because in the industrial model the crucial productive asset — human skill and effort — was held, in some measure, by everyone. Capital mattered, but labour retained bargaining power precisely because production could not happen without it. The twentieth-century social settlement was built on that mutual dependence.
This is a coherent picture, and parts of it may well prove right. We do not assume it is wrong. But it rests on an assumption that AI is beginning to strain: that the technology augments human labour more than it replaces the need to bargain with it.
Three specific shifts turn a familiar productivity story into something the old narrative cannot contain. Each concerns not how many jobs move, but who owns what production increasingly depends on.
Every economic order is organised around whatever is scarce and essential to production. For most of the industrial era that was labour, and later, particular skills. AI moves the centre of gravity toward a different triad: compute (the physical infrastructure of chips, data centres and power), models (the trained systems themselves), and data (the raw material from which capability is distilled). Unlike labour, none of these is naturally dispersed across the population. All three can be accumulated, fenced behind capital and intellectual-property barriers, and concentrated.
This is not a forecast; it is already measurable. The point is not that large firms lead — they usually do at a technology's frontier — but that AI concentrates simultaneously across compute, data, models and distribution, and that each layer reinforces the others. The economist's usual consolation, that high returns invite competitors who compete them away, runs into network effects, data feedback loops and capital requirements that a challenger cannot meet.
Karl Polanyi observed that societies subjected to rapid, unmanaged market expansion generate a “double movement”: a self-protective counter-push of regulation, institutions and social claims.9 That counter-movement is what turned the brutal early factory system into the managed capitalism of the post-war decades. With AI, the market is moving at the speed of software and the counter-movement at the speed of legislation — and the two are badly out of phase.
That is the sharp edge on which this section ends, and it is deliberately left unresolved. If the assets that increasingly drive production are ownable and concentrable in a way that human capability was not, then AI is not principally a labour-market event. It is a question about the ownership base of the economy itself — about who receives the surplus when the machines do more of the work, and who is left with a claim on it.
Act II — six findings, read from the data
The clearest signal is where capital is going. Investment is not flowing into wages or broad-based skills; it is flowing into physical AI infrastructure — chips, data centres, power — and into the proprietary models and datasets that sit on top of it. This is intangible-heavy, capital-intensive accumulation: its returns are captured by asset owners, and its barriers to entry rise with every training run. The task-based labour economics of Acemoglu, Autor and Restrepo is instructive here: technology raises welfare broadly only when it also creates new tasks for labour, not merely when it automates old ones.2
Figure 1 — The order-of-magnitude disagreement about AI's GDP effect
Acemoglu estimates AI adds ~0.5–0.7% to total factor productivity and ~0.9–1.2% to GDP over ten years; Goldman Sachs projects up to a 7% lift to global GDP. McKinsey frames the prize differently again, as US$17.1–25.6tn in annual value — a different metric, not a larger version of the same one.2 Horizons and definitions differ, and the disagreement is the point, which is why the bars are labelled with their own units rather than plotted on a shared axis that would imply false comparability.
Two disciplined conclusions survive this disagreement. First, the credible near-term macro-effect is modest: Acemoglu's estimate implies AI adds well under a tenth of a percentage point to annual productivity growth over the coming decade, because only about a fifth of tasks are exposed, of which under a quarter are today profitably automatable. The transformative case rests on capabilities and diffusion that have not yet happened. Second — and this is the finding that matters for system design — even the optimistic models redistribute upward.
Figure 2 — Even when AI grows the pie, the slices diverge
IMF illustrative simulation, high-complementarity / high-productivity scenario: change in total income by earnings group. Higher earners gain roughly seven times as much as lower earners in proportional terms, and returns to capital rise across every scenario tested. Aggregate output rises ~16% — but capital and wealth inequality, in the IMF's words, “always increase”.3
The mechanism is not mysterious. AI raises the productivity of capital and of a slice of highly complementary labour; it does little for, or competes directly with, everyone else. Growth and inequality move together. A system that relied on the labour market alone to distribute those gains would, on this evidence, distribute them upward.
| What is different | Why it matters for the economic system |
|---|---|
| It automates cognitive tasks | Previous waves substituted for muscle and routine; AI reaches into judgement, analysis and creativity — the tasks that had been labour's refuge from machines |
| Near-zero marginal cost of intelligence | Once trained, a model can be copied and deployed almost for free, favouring whoever owns the model and starving the pricing power that let skilled labour bargain |
| Data feedback loops | Use generates data; data improves the model; the better model attracts more use. This compounds concentration in a way electrification never did |
| Speed of diffusion | Capability spreads at the pace of software, while the institutions meant to counterbalance it move at the pace of law |
None of this proves the pessimists right; earlier waves also looked uniquely threatening in their day, and eventually enlarged employment. But the honest position is that AI's distinctive properties all push in the same direction — toward the owners of compute, models and data — which is why the historical optimism cannot simply be assumed.
Figure 3 — The investment chasm: private AI investment, 2024
US private AI investment was roughly twelve times China's in 2024; every other national total sat in the low single-digit billions or below. Source: Stanford HAI AI Index 2025.1 The year matters: the same series for 2025 reads US$285.9bn against US$12.4bn, a 23-to-1 gap, and is used in Paper One of this series. Both are correct for their own year.
Figure 4 — The compute chasm: who can afford the infrastructure
2026 AI capital expenditure, linear scale. At the scale that renders one year of four firms' capital spending a full bar, a large nation's flagship AI programme is a hairline — 560× smaller. This is the single most important asymmetry in the global AI economy: the capacity to build frontier infrastructure is privately held and geographically concentrated. Sources: company guidance, 2026; Government of India, IndiaAI Mission (₹10,300 crore).6
In 2024 US institutions produced 40 notable AI models to China's 15. Yet the performance gap between the leading US and Chinese models narrowed from 9.26% in January 2024 to 1.70% a year later. The lesson is twofold: leadership is concentrated, and it is contestable between the two poles — while everyone else struggles to reach the start line. Concentration and rivalry are not opposites here; they coexist, and both crowd out the rest of the world. Source: Stanford HAI AI Index 2025 and 2026.1
Exposure to AI is not the same as replacement by it. The IMF's central contribution is to divide exposed work into two categories: jobs where AI mostly complements the worker, and jobs where it mostly substitutes for them. The balance between the two is not fixed by the technology; it is shaped by how firms deploy it, how workers are represented, and how skills are distributed.
| Economy type | Augmented | Displacement risk | Total exposed |
|---|---|---|---|
| Advanced economies | 33% | 27% | 60% |
| Emerging markets (incl. India) | 24% | 16% | 40% |
| Low-income countries | 18% | 8% | 26% |
The paradox: the richest economies face the most disruption and hold the most tools to manage it; the poorest face less disruption but have the fewest.
The exposure figures understate the position of developing economies, because they measure the risk of AI displacing local work while missing the work AI creates there — and how it is priced. Behind every frontier model lies a hidden workforce of data annotators, content moderators and reinforcement labellers, disproportionately located in India, Kenya, the Philippines and elsewhere, performing the cognitively taxing and sometimes traumatic work of making raw data usable. This is the mechanism Couldry and Mejias call data colonialism: value is extracted from the periphery as cheaply as possible and captured at the core.10 That Kenya moved in 2026 to draft minimum-pay and mental-health protections for AI data workers is itself evidence of how far the extractive default had run.
If AI determined outcomes, the US, the EU and India would be converging. They are not. Each is absorbing the same models through a different institutional logic, and those logics are producing recognisably different political economies. This is the empirical heart of the paper's thesis.
| United States | European Union | India | |
|---|---|---|---|
| Governing logic | Liberal, capital-led; the frontier as a private race | Rights- and regulation-led; the market as something to be embedded | State-coordinated; AI as public infrastructure for development |
| Signature instrument | Venture & hyperscaler capital; ~$700bn 2026 capex | The AI Act — risk tiers, fines up to 7% of global turnover5 | IndiaAI Mission — ~$1.25bn, ~38,000 shared GPUs, subsidised compute6 |
| Ownership stance | Private by default; concentration tolerated as the price of frontier speed | Private but constrained; data rights and public-interest guardrails | Public rails, private apps; “digital public infrastructure” as the model |
| Structural risk | Entrenched platform power; a thin social settlement | Regulating faster than it builds; dependence on others' compute | Supplying data-labour to others' models; ~90% informal workforce exposed |
| Economy it tends toward | Hyper / platform capitalism | Socially-embedded AI capitalism | State-led digital developmentalism |
None of these labels is fixed or flattering in only one direction. The US model builds capability fastest and distributes it least; the EU model protects citizens best and risks regulating an industry it does not own; the Indian model has the boldest public-infrastructure instinct and the thinnest fiscal and institutional capacity to carry it, atop a workforce that is roughly 90% informal and therefore largely outside the reach of the very protections a transition would require.
Figure 5 — Data-centre electricity demand, 2024 to 2030
Global data-centre consumption and its share of world electricity, IEA base case. Consumption is set to more than double by 2030, with AI-optimised servers growing ~30% a year and accounting for nearly half of the net increase. In the US, per-capita data-centre consumption could exceed 1,200 kWh by 2030 — about a tenth of a household's annual use.7
Ecological economics insists that no account of an economic system is complete without its material throughput. AI's energy, water and hardware demands are large, rising, and concentrated in the same few hands that own the compute — which means the ecological question and the ownership question are the same question. Any future system that ignores the physical bill is not a serious proposal.
Ownership as the decisive variable
If one idea organises this paper, it is that “access to AI” and “control over AI” are not the same thing. Millions can access a model through an interface while a handful decide what it does, what it costs, what it refuses, and who profits.
Ask these of today's frontier AI and the answers cluster around the same small set of firms at almost every line. That clustering — not the capability of any single model — is the political-economy problem. The remedy is not to ban private AI but to vary the ownership form by layer, matching each layer to the arrangement that best guards against capture.
| Ownership form | Best suited to | Principal risk |
|---|---|---|
| Private | Competitive application markets; fast, risk-taking innovation | Concentration; rent extraction; unaccountable power |
| State | Strategic infrastructure; universal-service provision | Surveillance; capture; bureaucratic inertia |
| Cooperative | Worker- and community-governed tools and platforms | Under-capitalisation; being outcompeted at scale |
| Commons | Data governance; open models; shared research | Free-riding; the “tragedy” without strong stewardship |
This is the intellectual foundation of the mosaic recommended later: no single ownership form is right for every layer, and the design task is to place each where its strengths apply and its failure modes are contained. The distributive question — who receives the surplus — then follows the ownership question, rather than being left to redistribution after the fact.
AI as world political economy
AI is not merely a national development question; it is a global one, and the global picture sharpens every concern raised so far. Productive capability is not democratising across the world — it is concentrating, geographically and institutionally, along a small number of chokepoints that a few states and firms control.
| Chokepoint | Who holds it | Consequence |
|---|---|---|
| Advanced semiconductors | A very short chain: US design, Dutch lithography, Taiwanese fabrication | A handful of governments can throttle the frontier through export control |
| Cloud & compute | Three US hyperscalers dominate global capacity; ~$700bn 2026 capex | Most of the world rents its intelligence from a few landlords |
| Frontier models | A small number of US and Chinese labs | The US–China gap had narrowed to ~1.7% by January 2025; everyone else is absent |
| Data & digital labour | Value captured at the core; annotation labour in the Global South | Data colonialism — extraction from the periphery, profit at the centre |
The result is a world in which the US–China rivalry sets the pace, the European Union writes the rules it hopes others will adopt — the “Brussels effect” — while depending on others' compute, and most nations, India included, must choose between renting capability, building sovereign alternatives at a fraction of the frontier's scale, or negotiating access on terms they do not set. On current trends AI is concentrating productive capability, not spreading it.
A large developing economy under AI
India has built something few developing economies possess: a functioning stack of digital public infrastructure — identity, payments, data-exchange rails — used at population scale. The IndiaAI Mission adds subsidised shared compute, some 38,000 GPUs at a fraction of market hourly rates, explicitly to widen who can build. If AI value can be captured at the application and data layers — where India is strong — rather than only at the frontier-model layer, where it is not, the leapfrog is real.
Roughly 90% of India's workforce is informal, largely beyond the reach of the social protection any AI transition will require. Around 83% of the unemployed are young, and educated youth are a rising share. And India's largest current role in the AI value chain is as a supplier of data-intensive labour: IT and BPO work now exposed to automation, and annotation labour that trains models owned elsewhere.8
Without deliberate ownership strategy, AI could reproduce the classic dependency — exporting cheap cognitive labour, importing finished intelligence. India therefore holds the whole paper's thesis in miniature. The technology is available to it. Whether it leapfrogs or is locked into a new hierarchy will be decided by institutions and ownership: data governance, public compute, the formalisation and protection of labour, and a strategic choice to own the data and application layers rather than merely to supply the labour beneath someone else's model.
The possibility space — the systems AI makes possible
The evidence in Section Three does not point to a single destination. It points to a fork. Against those three filters we set out five candidate systems — from the market's default trajectory to its most radical alternative. They are not a menu of equally likely outcomes but the corners of the space within which the real future will be assembled, almost certainly as a blend.
AI privately owned; data commodified; platforms dominant; automation tuned to maximise returns to capital; surveillance economically pervasive.4 Efficient and highly feasible — it is simply what happens if nothing changes. Its weakness is social and political: it hollows out the demand, legitimacy and cohesion it depends on.
Private ownership and competitive markets retained, but disciplined: robust antitrust, universal social protection, worker participation, taxation of AI-driven productivity, public investment to spread the gains. The wager is a Polanyian double movement on fast-forward. Its risk is timing — the counter-movement may arrive too slowly to prevent lock-in.
The state coordinates AI as strategic infrastructure: public compute, public platforms, industrial policy, national capability. India's digital-public-infrastructure instinct is the leading real-world expression. Its dangers are centralisation, bureaucratic drag, capture and, at the extreme, the fusion of state and surveillance power.
Collective data ownership; public AI as a utility; data and platform cooperatives; universal basic services rather than wage-dependence as the distributive base. Scores highest on equity, democracy and freedom — and lowest on feasibility, because technological possibility here vastly outruns institutional readiness.
Not a single system but a deliberate pluralism: competitive markets where they work; public ownership of strategic infrastructure where concentration is dangerous; cooperatives and commons where communities can govern their own data and tools. Its virtue is that it needs no single decisive political victory — it can be built piece by piece, which is how real institutions actually change.
A candidate system cannot be judged on growth alone. We score all five against the same eight criteria — and we are explicit that this is an assessment, combining evidence with stated values, not a measurement. The values are named; readers may re-weight them.
Figure 6 — Five futures, eight criteria
| System | Effic. | Equity | Democ. | Freedom | Flourish. | Ecology | Feasib. | Resil. |
|---|---|---|---|---|---|---|---|---|
| A · Hyper / Surveillance | H | L | L | L | L | L | H | L |
| B · Reformed Inclusive | H | M | M | M | M | M | M | H |
| C · State Developmentalism | M | M | L | L | M | M | M | M |
| D · Democratic Commons | M | H | H | H | H | H | L | M |
| E · Hybrid / Mosaic | H | H | M | M | H | M | H | H |
Higher is stronger on each desirable criterion. H / M / L are printed in every cell, so the table reads identically without colour. This is Holy Cow Studios' analytic judgement, offered for challenge, not a numeric finding. No system dominates on every criterion: Model A scores well on efficiency and feasibility and poorly on almost everything a society ultimately cares about; Model D is its mirror image. Only Model E scores no worse than medium anywhere while reaching high on efficiency, equity, flourishing, feasibility and resilience.
Three conclusions follow. First, the trade-off between desirability and feasibility is the real constraint: the most attractive pure system (D) is the least buildable, and the most buildable (A) is the least attractive. Second, feasibility is not fixed — it can be widened by exactly the ownership and institutional moves Section Five sets out. Third, the balance tips toward Model E, not because pluralism is tidy, but because it is the only candidate that can be assembled incrementally, absorb shocks, and keep several values in tension without sacrificing any entirely. The mosaic wins less on elegance than on robustness under uncertainty.
Which future arrives depends on two variables above all others — the two this paper has argued are decisive. How concentrated is the ownership of AI and data? And how strong are the countervailing institutions? Cross them, and the possibility space resolves into four scenarios. These are not forecasts. They are a map of where the mechanisms lead.
Figure 7 — The scenario space, 2035–2050
↑ Countervailing institutions: STRONG
Models B / C — gains taxed and shared. Big firms dominant but facing antitrust, data rights and worker voice. Inequality contained; stability bought through redistribution.
Models D / E — commons plus public AI. Mixed ownership, each form where it fits. Universal basic services decouple survival from wage-labour. Lower inequality; resilient and legitimate. The transition to steer toward.
Model A — the default path. A few utilities own compute, models and data end to end; rents flow to capital; wages decouple from productivity. High inequality, surveillance normalised, thin legitimacy.
Co-ops and public AI without support. Ownership dispersed in principle, captured by whoever holds compute. Unstable; tends to collapse back toward Scenario I.
↓ Countervailing institutions: WEAK · left column: ownership CONCENTRATED · right column: DISTRIBUTED
Today's trajectory points toward the lower-left. The task of policy and strategy is to move the system up and to the right — toward distributed ownership backed by strong institutions — without passing through the unstable lower-right, where ownership is dispersed but nothing protects it. Each quadrant is named and labelled with its own axis position, so the reading does not depend on colour or placement alone.
Scenario IV is the most desirable and not the most likely; on current momentum, Scenario I is. And the borders are porous — different sectors and countries will sit in different quadrants at once, which is itself an argument for the mosaic. The strategic question is therefore not “which box will the world land in?” but “which do we want, and what moves us there before the default hardens?”
Not problems to solve, balances to strike
The choice between AI-era economies is not a choice between good and bad. It is a set of genuine tensions between things a society legitimately wants at once. Naming them is the discipline that keeps the recommendations honest: every position that follows resolves toward the right-hand column, and pays a stated price on the left.
| Productivity & automation | vs | Employment & augmentation |
| Private innovation | vs | Public & democratic control |
| Personalisation & convenience | vs | Privacy & autonomy |
| Capital accumulation | vs | Social distribution |
| Data extraction | vs | Data sovereignty |
| Market coordination | vs | Democratic planning |
| Economic growth | vs | Ecological sustainability |
| National AI sovereignty | vs | Global cooperation |
| Technological possibility | vs | Political feasibility |
| Human labour | vs | Machine production |
No system resolves all of these in one direction without loss; that is why Section Four found no dominant candidate, and why the mosaic — which holds several of these tensions in deliberate balance rather than collapsing them — scored best. A strategy that pretends the tensions away is not a strategy; it is a preference disguised as a fact.
The tension, resolved — ranked by impact and feasibility
Resolves the core complication: the scarce input is now ownable and concentrating. The single most consequential reframing in this paper is to stop asking “how do we get access to AI?” and start asking “who owns the compute, the models, the data, and the surplus?” For policymakers, that means competition policy aimed at the compute and model layers, including interoperability and, where warranted, structural separation — treating foundational AI as one treats other critical infrastructure. For boards, it means recognising that durable value sits in proprietary data and deployment, not in renting a model everyone else can rent. For investors, it means reading concentration as both the source of today's returns and tomorrow's principal political risk. Highest impact, moderate feasibility — and the precondition for everything below.
Resolves §3.4: the same exposure can augment or displace — deployment decides which. Whether AI complements or replaces a worker is a design choice, not a property of the model. Organisations that redesign work at the task level — automating the routine, reinvesting the freed capacity into higher-value human tasks, and giving workers a voice in the redesign — capture more value and distribute it better than those pursuing thin headcount substitution. This is the rare recommendation where the commercial and the social case coincide. Reskilling should be tied explicitly to complementarity, not offered as a generic gesture.
Resolves §3.2: even optimistic models push the gains upward. If the surplus accrues to capital, the remedy must reach capital. We favour two instruments over a headline cash transfer: broadened ownership — sovereign and citizen wealth funds, employee ownership, cooperative equity — so citizens hold a claim on the returns to AI capital; and universal basic services — health, education, care, connectivity and a public AI layer — which decouple survival from wage-labour more cheaply and durably than income transfers alone. A modest, well-designed levy on AI-driven productivity or on excess compute rents can fund both. High impact, lower feasibility, because it redistributes power and not merely money.
Resolves §3.3 and the ecological constraint of §3.6. Not everything should be a market, and not everything should be a state. The mosaic's practical content is to place public compute, data commons and data trusts, and interoperability and portability mandates at exactly the layers where private concentration threatens competition, rights or resilience. Public and cooperative infrastructure must be genuinely resourced, or it becomes Scenario III — dispersed in name, captured in fact.
Resolves §3.5 and §3.6. Energy, water and hardware are first-order constraints; compute is a geopolitical asset. Governments should treat energy and compute sovereignty as industrial-strategy questions, and firms should treat the physical bill as a real cost of AI rather than an externality. For developing economies in particular, the strategic imperative is to move up the value chain — from supplying cheap data-labour to owning data, applications and deployment. Own the application and the data; rent the frontier model.
“Wait and see — it's just another tech wave.” Rejected. Path dependency means delay is not neutrality; it is a decision to let the default harden.
Universal basic income as the headline solution. Deprioritised in favour of universal basic services plus broadened ownership. Cash transfers treat the symptom — missing income — while leaving the cause, concentrated ownership of the productive asset, untouched, and can entrench dependence on the very rentiers whose power is the problem. UBI may play a supporting role; it is not the centre.
Both laissez-faire and central planning, in their pure forms. Rejected together. Model A fails on almost every value a society holds; an over-extended Model C fails on democracy, freedom and resilience.
Treating “AI safety” as the whole of AI governance. Deprioritised as a sufficient frame. Model-level safety matters, but it does not touch ownership, competition or distribution — the variables that decide which economy emerges. A perfectly safe model owned by three firms is still a political-economy problem.
Frontier-parity for its own sake. Deprioritised, especially for smaller nations and firms. Matching hyperscaler capex is neither feasible nor necessary; owning the data, application and public-deployment layers is both.
The decision, made executable — milestones, owners, risk
Establish an ownership audit of critical AI supply — compute, models, data — in each jurisdiction. Legislate interoperability and data-portability defaults. Stand up the first public and commons compute facilities and data trusts. Firms: complete task-level augmentation reviews of core functions.
Owners: competition & digital regulators · finance ministries · company boards and CTOs · standards bodies · unions at the deployment table
Anchored milestone: public-interest compute funded to at least 5% of annual hyperscaler AI capex — on 2026's ~US$700bn, roughly US$35bn a year (Figure 4). Introduce an AI-productivity levy sized to begin closing the +14% against +2% gains gap (Figure 2), routed to universal basic services and citizen or sovereign funds. Cooperative and public-AI options live in at least three strategic sectors.
Owners: legislatures & treasuries · sovereign / citizen wealth funds · sector regulators · cooperative and public enterprises
Universal basic services operating at scale; broadened ownership giving citizens a measurable claim on AI returns. Anchored milestone: new clean, firm generating capacity commissioned to match AI data-centre load as it approaches 3% of world electricity (Figure 5). Developing economies demonstrably moved from data-labour toward data-ownership. Mosaic settled as the working norm.
Owners: multilateral bodies · energy and industrial-policy ministries · national AI missions · investors reallocating to the deployment layer
| Risk | Mitigation |
|---|---|
| Incumbent resistance — those who own the compute lose the most and will lobby hardest | Sequence gains to a broad coalition early (workers, small firms, consumers, developing states); use interoperability, which lowers prices, to build public support before tackling structural questions |
| Innovation chill — that redistribution and regulation slow the frontier | Target instruments at rents and concentration, not at research; pair every constraint with public investment and compute access that widens who can innovate |
| State overreach — that public AI becomes surveillance or capture | Commons and cooperative governance, not state monopoly; transparency, contestability and exit rights built in from the start |
| Fiscal strain — that services and funds are unaffordable | Fund from AI-specific rents and productivity gains, phased with the gains themselves; universal basic services are cheaper and more durable than open-ended cash transfers |
| Fragmentation — that dispersed ownership collapses back to the default (III → I) | Resource public and cooperative options properly and back them with strong institutions — the difference between Scenario III and Scenario IV is not ambition but support |
None of this requires a single decisive political victory — which is the mosaic's central advantage. It can be begun in fragments, in different sectors and countries, by different actors, and still compound. The first move — the ownership audit and the interoperability default — is available to a regulator, and the task-level augmentation review is available to a board, on Monday.
What the evidence leaves open
We began with a comfortable question — will AI take our jobs? — and argued that it conceals a harder one. The evidence assembled here does not show a technology destined to enrich or impoverish us. It shows a technology that shifts the scarce input of the economy from labour, which nearly everyone holds a little of, to compute, models and data, which almost no one holds — and which are concentrating, measurably, at every layer at once.
That shift does not settle our future. It is precisely because AI is so powerful that the institutions around it matter so much: the same models are already building a liberal-capital economy in the United States, a rights-and-regulation economy in Europe, and a state-infrastructure economy in India. Technology set none of those outcomes. Ownership, institutions and political choice did.
The disagreement among serious economists about AI's aggregate effect — from around one per cent of GDP to seven — is not a reason to wait for certainty. It is a reason to build institutions robust across the whole range, because we will not know which world we are in until we are already living in it.
AI does not choose our economic system. Ownership does. And on present trends a handful of firms will own the intelligence the whole economy runs on — unless institutions, deliberately and soon, decide otherwise.
The future economic system is open, not predetermined. AI has widened what is technically possible; existing institutions shape what is economically likely; political power decides what is socially feasible; and democratic choice determines what is normatively desirable. Between those four lies the work — and the opportunity — of the coming decade. The organisations that understand AI as a question of ownership rather than access, and act while the answer is still open, will not merely adapt to the next economy. They will help decide which one we get.
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Holy Cow Studios Pvt Ltd (2026) From Platform Capitalism to What? AI Order Research, Paper Two. Second edition, August 2026.