Would rival AGI projects attack each other's data centres? The strategic logic, a toy model, and the real-world indicators to watch.
Thesis being trackedIf several actors race to AGI, and there are enough of them, they will attack each other's data centres (by cyber or physical means) to sabotage or seize them. The fear of a rival getting there first makes pre-emption look rational.
This page tracks a thesis; it does not endorse it. Strategy is described only at a high level, and every real-world claim links to its source. The interactive model is an illustration, not a forecast.
The strategic concepts in plain language
Security dilemma
Steps one side takes to make itself safer (building compute, hardening sites) make rivals feel less safe, so they respond in kind. Both can end up less secure without anyone intending aggression (overview). Jervis argued the danger is greatest when offence has the advantage and offensive and defensive capabilities look alike, as AI capability does.
First strike and pre-emption
If striking first is much better than being struck, and you fear a rival is about to strike or about to gain a decisive edge, waiting looks costly (preemptive war). The thesis rests on this: a near-AGI rival is seen as a lasting, possibly decisive threat.
Bipolar vs multipolar
Waltz argued two-power systems are more stable: each side watches one rival, and miscalculation is rarer. Others argue many powers spread attention and create cross-cutting ties (polarity). The AI race today is mostly US–China, with many labs inside each.
Prisoner's dilemma
Each player does better by defecting whatever the other does, so both defect, even though both would prefer mutual cooperation (SEP). Racing to deploy unsafe systems, or striking a rival, can have this shape.
Stag hunt
Cooperation is the best outcome if you trust others to cooperate, but the safe choice is to go it alone (stag hunt). Many AI-safety agreements are closer to a stag hunt than a prisoner's dilemma: the problem is trust and verification, not irreconcilable incentives.
Deterrence, MAD and MAIM
Nuclear mutual assured destruction made first strikes suicidal (MAD). Hendrycks, Schmidt and Wang propose Mutual Assured AI Malfunction (MAIM): "any state's aggressive bid for unilateral AI dominance is met with preventive sabotage by rivals", and they argue MAIM already describes the strategic picture (Superintelligence Strategy). Note that MAIM predicts sabotage threats; the authors argue the threat itself can keep the peace.
Number of players
With more players, the chance that at least one defects rises quickly, monitoring is harder, and any single player's fear is higher. But a decisive first strike against several rivals at once is also harder. The toy model below shows the first effect.
What to watch
New academic work applying deterrence theory to AI.
Official doctrine that mentions AI infrastructure as a target or a protected asset.
Move the sliders to see how the number of players, the offence–defence balance and deterrence change the incentive to strike first. Illustrative only. The payoffs are invented to show the logic and are not estimates of anything real.
Toy model: when does striking first look attractive? illustrative, not a forecast
This is a deliberately simple game with made-up payoffs, so the shape of the incentives is visible. It uses no real data and does not estimate any real-world probability. Each period, every one of N rival AGI projects chooses whether to strike a rival's data centres. Striking succeeds with probability equal to the offence advantage. A failed strike invites retaliation scaled by deterrence. Waiting risks being hit by any of the other N−1 players. Players respond noisily to these payoffs (logit best response), and the model reports the equilibrium where everyone's fear and everyone's behaviour are consistent.
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Chance a given player strikes in a period (equilibrium)
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Chance at least one strike happens in a period
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Each player's fear: chance a rival strikes it
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Payoff of striking minus waiting (positive = strike looks better)
Model equations
Strike payoff = a − (1 − a)·2d − 0.3. Wait payoff = −0.8·F·a, where F = 1 − (1 − p)N−1 is the chance at least one rival strikes. Each player strikes with probability p = 1 / (1 + e−6·(strike − wait)), iterated to a fixed point. a = offence advantage, d = deterrence, 0.3 = fixed cost of striking (escalation, fallout, reputation). Every constant is arbitrary. The model leaves out alliances, verification, communication, repeated-game reputation, uncertainty about rivals' capabilities and non-state actors, all of which matter in reality.
What to watch
Whether real-world defence (hardened, dispersed, underground sites) is improving faster than offence (drones, AI-enabled cyber).
How many players are there, how concentrated is the infrastructure, and are attacks on it already happening?
How many players are at the frontier?
count of organisations / countries · computed by this site
Counts computed by this site from Epoch's model database. Epoch's 'frontier' subset = models in the top 5 by training compute when released. Many recent models have undisclosed compute, so the ≥10^25 FLOP counts are a lower bound. Co-developed models count every listed organisation.
Tracked frontier AI data centres: current compute and power by country
H100-equivalents (millions, bars) · power (GW, line) · computed by this site
Compute is highly concentrated: a few dozen US campuses hold most of the tracked capacity. In game-theory terms, that makes them high-value targets.
Sums computed by this site over the 95 sites in Epoch's hub (a curated sample of the largest AI data centres, mostly from public permits and satellite imagery), not a census. 'Current' values as published by Epoch on the fetch date.
Dataset of cyber and physical attacks on AI infrastructure
No maintained public dataset of attacks on AI labs or data centres exists yet; individual verified incidents are listed in the timeline on this page instead.
Anthropic said a group it assesses with high confidence as Chinese state-sponsored used Claude Code against roughly thirty targets, with AI doing 80–90% of the work. It succeeded in a small number of cases (Anthropic). Detected mid-September 2025.
29 Jan 2026
Ex-Google engineer convicted of stealing AI supercomputer secrets
A jury convicted Linwei Ding of theft of trade secrets about Google's TPU/GPU AI supercomputing infrastructure, and of economic espionage (DOJ). On 20 Aug 2026 the judge acquitted him of the espionage counts; the trade-secret convictions stand (court order).
1 Mar 2026
Drone strikes hit AWS data centres in the UAE and Bahrain
Amazon said two of its UAE data centres were directly struck by drones and a Bahrain facility was damaged by a nearby strike. Iran's IRGC claimed responsibility (AP). The strikes were on 1–2 March, early in the Iran war. These were attacks on commercial cloud capacity in a regional war, not one AGI project sabotaging another.
15 Sep 2026
AWS says it cannot restore the Bahrain region
Six months on, AWS said it cannot restore resources hosted only in Bahrain, nor one UAE availability zone (CNBC).
What it takes to defend against nation-state attackers.
Prediction markets
Live prices from public prediction markets, snapshotted by scripts/update_markets.py. A price of 30% means traders pay about 30¢ for a contract that pays $1 if the event happens; treat it as a crowd estimate, not a fact. Polymarket and Kalshi are real-money markets (Kalshi is CFTC-regulated); Manifold uses play money and is often thin. Long-dated and low-volume markets are poorly calibrated. Each market's exact resolution rules on the platform decide what counts, so read them before relying on a headline question.
$219k vol · $44k liquidity · closes 2027-01-01 · as of 2026-10-30 17:06 UTC
Snapshot fetched 2026-10-30 17:06 UTC from public APIs (Polymarket Gamma/CLOB, Kalshi trade API, Manifold v0). Prices are what traders are paying, not my forecasts and not advice; thin or long-dated markets can be far off. Sparklines show daily prices over up to 120 days. Metaculus: API now requires an authenticated account token (HTTP 403 without one) and the website is behind a bot challenge, so Metaculus forecasts are not included. Add a ref type with a personal token later if wanted.
How to add a market
Add a ref to "markets" → "groups" → "refs" in src/themes/<slug>.json: {"platform":"polymarket","event":"<slug after /event/ in the URL>"}, {"platform":"kalshi","event":"<EVENT_TICKER>"} or {"platform":"manifold","id":"<market id or slug>"}. Optional: "markets" (list of specific sub-market slugs or tickers), "max", "sort" (date, prob or api). Then run python3 scripts/update_markets.py <slug> and rebuild.
Notes & journal
Dated observations from src/notes/agi-game-theory.md. Add a new entry with a ## YYYY-MM-DD Title heading.
24 Oct 2026
Baseline
Page created. Epoch counts 15 organisations in 3 countries with a disclosed ≥10^25 FLOP model; that is a lower bound, because many labs don't disclose compute. The physical strikes so far (AWS UAE/Bahrain, Mar 2026) were part of a regional war, not AGI-race sabotage. No public case yet of one lab or state sabotaging a rival's training run.