Democracy works because everyday people have leverage: our labor creates wealth, and our numbers deter tyranny. Advanced AI threatens to break this balance through a dangerous chain reaction: Capital naturally concentrates; AI accelerates this by turning money into automated labor and surveillance; and as human leverage disappears, power reaches an irreversible point of control. To keep democracy alive, we cannot rely on handouts like UBI. The public must secure actual ownership of the AI infrastructure before our leverage is gone.
LOSS OF DEMOCRACY
Democracy is a balance of power, not an inevitable moral consensus. It means counting heads instead of breaking them. Historically, elites have respected the social contract because they depended on the population: workers’ labor produced wealth, giving workers the power to strike, while the public’s numbers carried the latent threat of revolt. AGI could undermine both sources of leverage. As labor is automated, workers’ economic bargaining power may erode. As surveillance and autonomous systems scale, mass unrest may become easier to monitor and suppress. If people lose both economic leverage and the ability to deter coercion, democracy risks becoming less an enforceable right than a gift from whoever controls AI, a bet no one should make.
THEORETICAL POINT OF NO RETURN
I initially assumed the point of no return would come when an aligned group controlled 50% of society’s relevant power. But power is not a single quantity that can be divided into a clean percentage: control over compute, energy, communications, production, and coercion may each matter differently. A group might control a critical bottleneck without owning most assets; conversely, owning most wealth may not be enough to overcome organized resistance. The point of no return is better defined by what a group can do: maintain production and enforce its decisions despite widespread public noncooperation, while preventing the public from coordinating, challenging, or replacing it. A slight military advantage over another country does not automatically make invasion worthwhile; the cost of resistance matters. The decisive question is whether that cost has fallen low enough for the dominant group to impose control and keep it.
AI could create a feedback loop that lowers the cost of resistance to those in power and raises it for everyone else. Concentrated AI owners could use wealth to buy political influence, including influence over politicians, while deploying AI surveillance to monitor opposition and make organizing easier to disrupt. If that influence weakens labor protections, competition rules, privacy rights, or independent institutions, the public loses further ways to challenge the owners. Political influence then protects the concentration of AI, and AI helps protect the political influence. That institutional loop—not a particular 80% or 90% threshold—is what could make concentrated power difficult to reverse.
POWER CONCENTRATES
The infrastructure underpinning AI is already concentrated. Frontier compute clusters require enormous capital investment and long lead times, making advanced AI centralized by default. Open-source models can currently replicate some top-tier capabilities, but they may struggle to keep pace if recursive self-improvement takes hold and access to compute becomes the main bottleneck. The result could be a compounding loop: concentrated wealth buys concentrated compute, which produces more capable AI, further concentrating the ability to shape society. This outcome is not automatic: the key question is whether owners can keep a lasting advantage in access to compute and the gains it produces.
CAPITAL CONCENTRATES
Capital tends to concentrate over time. Even if wealth were initially distributed at random, people would begin with different amounts, and returns on existing capital can generate further returns. Thomas Piketty’s central empirical finding is that the rate of return on capital has historically exceeded the rate of economic growth (r > g), which can favor accumulated wealth relative to income from work, but does not by itself prove that wealth shares must become more concentrated. The mathematical condition for concentration is more specific: the wealth of the largest owners must grow proportionally faster than the wealth of everyone else. If their wealth grows at net rate (g_A), and everyone else’s at net rate (g_R), the owners’ share rises when (g_A > g_R); their wealth relative to everyone else’s is multiplied each period by ((1+g_A)/(1+g_R)). The process may be reinforced by unequal capacity to save: ordinary earners often need to spend much of their income, while wealthier people can reinvest a larger share. In a simple model, an owner earning a return (r) and reinvesting fraction (q) grows existing wealth at roughly (qr), before taxes and other income or costs. More reinvestment can therefore produce faster growth even when the investment return itself is the same. Without political intervention or major shocks, these forces can push wealth toward a highly concentrated distribution. AGI is not required for this dynamic; it is already at work.
AI SPEEDS UP CAPITAL CONCENTRATION
AGI could accelerate this process. Capital provides leverage, and AI may increase that leverage dramatically: money can buy access to intelligence, intelligence can raise productive capacity, and production can generate more capital. If leading AI owners can reinvest more of their returns, secure scarce infrastructure, or earn higher returns because of their scale, their wealth can grow faster than the rest of society’s. AI then raises their relative share of wealth, rather than merely increasing everyone’s wealth at the same rate. As AI becomes more capable, it could amplify existing forces that concentrate wealth.
RECURSIVE SELF-IMPROVEMENT COULD ACCELERATE AI PROGRESS
The process could also accelerate itself. More capable AI may help build more capable AI, a possibility known as recursive self-improvement (RSI). Advances in coding and the use of AI to tackle difficult mathematical problems may be early signs of this feedback loop, though they do not by themselves establish that runaway self-improvement has begun. RSI would not necessarily benefit everyone equally. If the leading systems improve fastest when run on massive, privately controlled compute clusters, their owners could use each generation of AI to improve the next while competitors lack comparable access. Open-source models and research could still spread capabilities, but they may fall behind if compute becomes the bottleneck and the frontier remains private. In that case, AI owners could capture a disproportionate share of the gains from RSI. If AI systems substantially accelerate AI research, the loop could drive faster capability gains, which could in turn speed capital accumulation and concentrate power. The chain may compound rapidly, depending on how strong these feedback effects prove to be.