The major ways AI could go, good and bad, on one map. For each one, the worried side and the hopeful side make their case in their own words, every published probability is shown with its source, and a simple four-step test sorts out what needs new rules and what mainly needs explaining.
The idea comes from Emad Mostaque, who said on the Moonshots podcast in October 2026 that nobody had built a proper map of what both camps say about each scenario. He is hopeful about what AI can do and worried about who will own it, and every card here is built to be signed off by someone from each side before it counts.
Eight areas of life, each with a good and a bad way things could go, plus two that fit nowhere. Click any scenario to open its card. The colored tag is the result of the sorting test; the dots show how solid the evidence is.
Underneath the disagreements sit two questions: how fast AI arrives, and whether control and benefits stay broadly shared. Each scenario sits in the futures where it is most likely. Some sit in more than one.
Gradual change, benefits widely shared
Fast change, benefits widely shared
Gradual change, control concentrating
Fast change, control concentrated or lost
Every card follows the same structure, and the same rules apply to all of them, so a reader can compare scenarios without trusting anyone's overall judgment.
Every card in full: both sides' cases, common ground, the questions that would change minds, published probabilities, early warning signs, existing law, and the sorting result with its reasoning. Sources are listed at the bottom of each card.
In one sentence: AI speeds up biology and medicine enough that decades of expected progress (new drugs, cures for major diseases, longer healthy lives) arrive within roughly a decade.
Design note: for a good-direction card, "worried" means worried this won't happen or is oversold, not worried that it will.
Short excerpts for orientation only. A person from this side will choose the final quotes at sign-off.
Plain summary (needs sign-off from this side): AlphaFold solved a fifty-year problem in biology and won a Nobel Prize. AI is now predicting how drugs bind to targets, designing new molecules, and outperforming experienced physicians at diagnosis from real emergency records. The FDA cleared 350 AI-enabled medical devices in 2025 alone. Discovery is the stage AI accelerates, and it is a large share of the cost and time of making a drug.
Plain summary (needs sign-off from this side): Discovery was never the main bottleneck. Most drugs fail in human trials because biology is complicated, not because the molecule was badly chosen, and AI doesn't shorten Phase 2 or Phase 3. Diseases like cancer and Alzheimer's involve many interacting causes that have resisted decades of work. Bold timelines from company leaders help raise money. AI will help medicine steadily, but "all diseases in ten years" sets expectations that will hurt public trust when they're missed.
No published estimate of the probability of compressed medical progress was found. Related claims:
| Source | Claim | Date | Type |
|---|---|---|---|
| Amodei | 50 to 100 years of biological progress in 5 to 10 years, after powerful AI arrives | Oct 2024 | Personal estimate, conditional |
| Hassabis | Ending all disease "within reach," maybe within a decade | Apr 2025 | Personal estimate, hedged |
Both are conditional or hedged in their original wording. Headlines usually drop the conditions.
Medium for discovery-stage acceleration. Low for the overall timeline.
FDA drug and device approval processes apply in full. The FDA has issued guidance on AI-enabled devices. No law blocks AI drug discovery; the question is whether regulators can evaluate it efficiently.
Result: Policy, act now on regulator capacity. Communicate to set realistic expectations.
Communication note: The breakthroughs are real and the timelines in headlines aren't. "AI is changing medicine" is true now. "AI will cure all disease by 2035" is a hedged personal guess.
In one sentence: Someone who wants to cause mass casualties uses AI to close the gap between wanting to build a biological or chemical weapon and being able to, and carries out an attack that kills far more people than they could have reached without it.
Design note: the two sides here are not "this would be bad" versus "this would be fine." Everyone agrees it would be catastrophic. They disagree about whether AI meaningfully changes who can do it. The word for the thing being argued about is uplift: the extra help an AI gives someone compared with what they could already get from a search engine, a textbook and a library. The question is never whether AI can describe a dangerous process, because so can a textbook.
Short excerpts for orientation only. A person from this side will choose the final quotes at sign-off.
Plain summary (needs sign-off from this side): The knowledge barrier is falling fast and measurably. Models now outperform expert virologists on at least one specialist test, and a February 2026 study of novices answering dual-use biology questions found the group with model access was 4.16 times more accurate than the internet-only group, beating human experts on three of four benchmarks, with 89.6% of participants reporting little difficulty getting the information despite safeguards. The companies building these systems are not disputing this: all three major developers restricted models in 2025 on biological grounds. Separately from chatbots, biological design models are being released, sometimes without basic safety assessment, that can design novel viral components and craft sequences that evade the screening software meant to catch them. The attack itself only has to work once, and the measure that would most reduce the risk, mandatory screening of synthetic DNA orders, has been sitting unfinished in the US executive branch since 2025.
Plain summary (needs sign-off from this side): Benchmarks measure answering questions, and nobody has ever been killed by a correctly answered question. The only randomized trial that put people in a laboratory, Active Site's eight-week study of 153 novices published in February 2026, found 5.2% of the group with model access completed the full workflow against 6.6% of the internet-only group, a difference that was not statistically significant (P = 0.759). Participants in both arms rated YouTube more useful than any of the models, and the models in the assisted arm had safeguards removed. Forecasters who had predicted a 27% completion rate for the assisted group were wrong by a factor of five. Physical skill, materials and equipment are the constraint, and text does not transmit physical skill. Treating every capability result as near-term catastrophe risk also carries its own cost: it is being used to argue for restricting the same biology tools that are producing medical progress.
| Source | Who | Question or claim | Estimate | Date | Scorable? |
|---|---|---|---|---|---|
| FRI | 46 biosecurity and biology experts | Chance of a human-caused epidemic killing over 100,000 people, in 2028 | 0.3% (median) | Jul 2025 | Yes, by 2028 |
| Same | Same | Same, if AI matched a top virologist team on the Virology Capabilities Test | 1.5% (median) | Jul 2025 | Conditional |
| Same | Same | Same, if AI enabled 50% of non-experts to synthesize influenza | 1.25% (median) | Jul 2025 | Conditional |
| Same | Same | Same, with anti-jailbreak measures plus required screening by synthesis providers | 0.4% (median) | Jul 2025 | Conditional |
| FRI | 30 superforecasters, 30 biosecurity experts, 17 virologists | Human-caused outbreak causing 100,000+ deaths or $1 trillion damage in 2028, before and after seeing the wet-lab trial results | 0.3% fell to 0.2% (median) | Feb 2026 | Yes, by 2028 |
| Same | The 15 most accurate forecasters in that group | Same | 0.18% fell to 0.10% | Feb 2026 | Yes, by 2028 |
| Same | Same panel | Same, under a hypothetical fivefold uplift | 0.7% (median) | Feb 2026 | Conditional |
| Same | Same panel | Share of the model-assisted group that would complete the full laboratory workflow | 27% predicted (median) against 5.2% actual | Feb 2026 | Resolved, badly |
Read these with care: every number here is an annual probability of an epidemic from any human cause, not specifically an AI-assisted one, so AI is the conditioning variable rather than the subject. The last row is the most useful line in the table: the same expert groups whose conditional estimates drive the worried case overestimated real-world performance by a factor of five when a result could be checked.
Low. Two randomized trials point in opposite directions because they measure different things, one answering questions and one doing laboratory work, and both tested only novices. Every published probability is conditional, and the one prediction that got scored was badly wrong.
Developing, producing, stockpiling or using these weapons is already prohibited by treaty. The Biological Weapons Convention was the first treaty to ban an entire category of weapons of mass destruction, but it has no verification organization and relies on a network of cooperating bodies. The Chemical Weapons Convention is stronger: 193 states, an implementing body in the OPCW, routine monitoring of listed chemicals, and challenge inspections on an "any time, anywhere" basis. Neither treaty reaches a lone actor, and neither mentions AI.
The gap is the digital-to-physical barrier. The 2024 US Framework for Nucleic Acid Synthesis Screening made screening a condition of federal research funding, so it does not bind commercial providers that take no federal money. More than 30 leading providers screen voluntarily. Executive Order 14292 (5 May 2025) ordered OSTP to replace the framework within 90 days and add an enforcement mechanism; CRS reported in September 2026 that it had not been updated, leaving providers without regulatory clarity. Bills are pending, including H.R. 3029, which has passed the House, and S. 3741. Free screening tools exist independently of regulation, including SecureDNA. Model-level safeguards are entirely voluntary: developers may report safety evaluation results to the US Center for AI Standards and Innovation, and no law requires it.
Result: Enforcement problem. The rules and the agreed fix both exist. What is missing is a published framework, a statute that covers providers outside federal funding, and an agency told to enforce it.
Communication note: Two randomized trials gave opposite-looking answers and both are being quoted selectively. The honest version is that AI has clearly reduced the knowledge barrier and has not yet been shown to reduce the laboratory barrier, that the people who were asked to predict the laboratory result were wrong by a factor of five in the alarming direction, and that the one measure nearly everyone agrees on has been stuck in an unfinished rulemaking since 2025. Do not let the disagreement about probability hide the agreement about what to do.
In one sentence: AI makes workers across the economy noticeably more productive, and the gains reach ordinary people as higher real wages and lower prices rather than staying with the firms that own the technology.
Design note: for a good-direction card, "worried" means worried this won't happen or is oversold, not worried that it will. The scenario has two links that can break separately: productivity has to rise across the economy, and the gains have to reach workers and shoppers. Evidence for the first link is growing. Evidence for the second is close to absent so far. "Productivity" here means output per hour worked.
Short excerpts for orientation only. A person from this side will choose the final quotes at sign-off.
Plain summary (needs sign-off from this side): Field studies keep finding real gains. Customer support agents resolved 15% more issues per hour with an AI assistant, and the least experienced workers gained the most. Consultants using GPT-4 finished more tasks, faster, at higher quality. The biggest gains go to less experienced workers, which is the opposite of past technology waves that rewarded the already skilled. US productivity growth has averaged 2.1% a year since late 2019, above the 1.5% of the previous business cycle, and the J-curve pattern says the large gains come after the reorganizing. Cheaper expertise means cheaper services, and cheaper services are how productivity has always raised living standards.
Plain summary (needs sign-off from this side): Task gains are not economy-wide gains. Studies pick well-defined tasks where AI shines, and on tasks outside its abilities AI made consultants worse. When experienced developers were measured instead of asked, they were slower with AI while believing they were faster. Economy-wide, the gains so far look small, wages for AI users have not moved, and the share of output paid to workers is at a record low. Meanwhile AI is pushing up the prices of chips, computers, software and electricity. Robert Gordon of Northwestern University bet Brynjolfsson that US productivity growth will average below 1.8% a year from 2020 to 2030 (Bloomberg Government, May 2026, secondary). Recent strength in the numbers may reflect data-center spending rather than AI making work more efficient (The Decoder, February 2026, secondary).
No published estimate of the probability that AI produces broad productivity gains that reach wages and prices was found. The closest numbers are economists' point estimates of the size of the productivity effect, which disagree by about a factor of ten:
| Source | Who | Question or claim | Estimate | Date | Scorable? |
|---|---|---|---|---|---|
| NBER Working Paper 32487 | Daron Acemoglu, MIT | Total factor productivity gain from AI over 10 years | No more than 0.66% (under 0.53% adjusting for hard tasks) | May 2024 | Partly, by 2034 |
| Penn Wharton Budget Model | Penn Wharton | US productivity and GDP level from generative AI, relative to no AI | About 1.5% higher by 2035, 3.7% by 2075 | Sep 2025 | Partly, by 2035 |
| EY-Parthenon | Lydia Boussour | US real GDP above baseline, central scenario | About 2.5% by 2033 | Jan 2024 | Partly, by 2033 |
| Goldman Sachs | Joseph Briggs, Devesh Kodnani | Global GDP increase, and productivity growth uplift over 10 years | 7% of global GDP; +1.5 percentage points a year | Apr 2023 | Partly, by 2033 |
| IMF via Qatar News Agency (secondary) | IMF World Economic Outlook | Extra global growth from AI adoption | Up to 0.3 points in 2026; 0.1 to 0.8 points a year over the medium term | Jan 2026 | Partly |
| St. Louis Fed | Bick, Blandin and Deming | Productivity gain implied by self-reported time savings | About 1.1% | Feb 2025 | No (self-reported) |
| Bloomberg Government (secondary) | Brynjolfsson vs. Gordon, $400 bet | Average US labor productivity growth 2020 to 2030 above 1.8% a year | Brynjolfsson: above. Gordon: below | Bet made 2020, reported May 2026 | Yes, 2031 |
The estimates measure different things (total factor productivity, labor productivity, GDP, US or global), which explains part of the spread but not most of it.
Low for the scenario as a whole. Task-level evidence is solid (randomized and staggered field studies with thousands of workers). Economy-wide productivity evidence is early and disputed, and there is no evidence yet that gains are reaching wages or consumer prices.
No law blocks AI productivity gains. Competition (antitrust) law is the main existing tool for making cost savings reach prices, and labor law and collective bargaining shape whether they reach wages. Neither was designed with AI in mind. Official statistics agencies (BLS, BEA, Census) already measure productivity, prices, labor share and firm AI adoption; the Census Business Trends and Outlook Survey added AI questions, which the Federal Reserve uses to track adoption (Federal Reserve, April 2026). There is no official measure of how much of productivity growth comes from AI.
(Flipped for a good scenario: what is blocking it, and does removing the block need policy?)
Result: Policy, act now on measurement of AI's productivity, wage and price effects. Communicate to set realistic expectations.
Communication note: Tell people the honest shape of it: AI measurably speeds up many specific tasks, especially for newer workers, but there is no clear economy-wide boom yet, wages have not followed, and in 2026 AI is raising some prices rather than lowering them. "Cheaper everything" is a forecast, not a finding.
In one sentence: AI replaces large numbers of white-collar and eventually other workers faster than new work appears, unemployment rises sharply, and the gains flow mainly to the owners of AI and capital.
Short excerpts for orientation only. A person from this side will choose the final quotes at sign-off.
Plain summary (needs sign-off from this side): The early evidence is exactly what you would expect at the start of a large displacement. Companies stop hiring juniors in exposed fields before they fire anyone, so national unemployment stays flat while the damage builds underneath. Earlier automation mostly replaced physical and routine work. This wave targets thinking work, and it is improving faster than workers can retrain. Without deliberate policy, gains concentrate with the firms that own the models.
Plain summary (needs sign-off from this side): Every major technology has raised fears of mass unemployment, and every time new work appeared. Aging populations mean labor will be scarce, not surplus. The entry-level decline is real but has other plausible causes, and economy-wide data shows no break from normal patterns. The bigger opportunity is AI as a tool that lets more people do skilled work, which is a design choice, not a law of nature.
No published estimate of the probability of mass AI-driven unemployment from a forecasting tournament or expert survey was found. What exists instead are point forecasts:
| Source | Claim | Date | Type |
|---|---|---|---|
| Amodei (Axios) | Unemployment 10 to 20% within 1 to 5 years | May 2025 | Personal forecast |
| AI Impacts survey | 50% chance all occupations fully automatable by 2116 | 2023 | Survey median |
| Same survey | 50% chance AI can do every task better than humans by 2047 | 2023 | Survey median |
The 60 to 70 year gap between the last two answers, for nearly the same event, comes only from how the question was worded.
Medium for the entry-level effect (payroll data, several studies). Low for economy-wide projections.
Unemployment insurance, the WARN Act (60-day notice for mass layoffs), and general retraining programs. None is designed for a fast, technology-specific shift in white-collar work. No law requires disclosure of AI-driven job cuts.
Result: Policy, act now on measurement (disclosure of AI-attributed layoffs, funded public tracking). Prepare and watch on income support, triggered by signposts 2 and 3.
Communication note: Tell people the honest shape of it: no mass layoffs so far, a real and growing squeeze on first jobs, and a genuine disagreement about whether it spreads. Young people choosing fields of study need this most.
In one sentence: AI speeds up scientific discovery in materials, weather, physics and energy systems enough that clean energy becomes cheaper and easier to run, and the climate gains outweigh AI's own footprint.
Design note: for a good-direction card, "worried" means worried this won't happen or is oversold, not worried that it will. This card is the mirror of "AI's energy and resource demand outpaces its gains," and the two share much of the same evidence.
Short excerpts for orientation only. A person from this side will choose the final quotes at sign-off.
Plain summary (needs sign-off from this side): AI has already delivered real scientific results: AlphaFold won a Nobel Prize, AI weather models now beat traditional ones on many measures at a tiny fraction of the energy, and AI controlled the plasma in a real experimental fusion reactor. The same methods are now aimed at batteries, electrolytes, solar materials and grid operation, and early results match the best human designs. Solar and battery costs were already falling fast. AI adds better materials, better forecasts of wind and sun, and better grid management on top. Ramez Naam, a clean energy investor and writer, argues (April 2026) that when AI speeds up innovation in drugs, materials or clean energy, more than 90% of the benefit flows to customers worldwide. The International Energy Agency's most optimistic case has existing AI uses cutting more emissions by 2035 than data centers produce.
Plain summary (needs sign-off from this side): The delivered results are real but narrow, and the headlines run well ahead of them. Predicting that a crystal could be stable is not discovering a useful material, and independent chemists found much of the flagship materials work was old compounds in new clothes or chemically implausible. A widely cited study claiming AI boosted materials discovery was disowned by MIT in May 2025 over the integrity of its data. A February 2026 review of 154 public claims about AI's climate benefits, commissioned by environmental groups, found 74% lacked verifiable evidence, and that companies blur small, proven machine learning tools with energy-hungry generative AI. Journalist James Temple compared (MIT Technology Review, April 2025) AI's climate promises to carbon offsets: pollution now, in exchange for benefits later that nobody is accountable for. Clean energy got cheap mostly without AI, and its biggest bottleneck is grid connection and permitting, which AI does not fix.
No published estimate of the probability that AI makes clean energy meaningfully cheaper or science meaningfully faster was found. Related numbers:
| Source | Who | Question or claim | Estimate | Date | Type |
|---|---|---|---|---|---|
| IEA, via DeepLearning.AI summary (secondary) | International Energy Agency | CO2 cuts from widespread adoption of existing AI in industry, transport and buildings | 1.4 billion tonnes in 2035 | Apr 2025 | Conditional scenario ("if realized") |
| MIT Technology Review | IEA, as reported | Same cuts compared with data center emissions | Up to about three times larger | Apr 2025 | Most optimistic scenario |
| Stand.earth and partners | Advocacy coalition review | Share of 154 public AI climate-benefit claims with verifiable evidence | 26% (74% unverified) | Feb 2026 | Audit of claims, not a forecast |
The IEA's own authors noted, as reported by MIT Technology Review, that there is "no momentum" ensuring the adoption their optimistic number assumes.
Low for the scenario as a whole. Evidence is strong for specific tools (protein structure, weather forecasting), thin for AI-discovered materials reaching use, and nearly absent for AI measurably lowering the cost of clean energy.
No law blocks AI-assisted research or AI use in grid operation. The main blocks are practical: laboratory and manufacturing capacity, grid interconnection queues, and the lack of any standard for verifying AI climate-benefit claims. Some grid rules now push in the helpful direction: Texas Senate Bill 6 (June 2025) creates a paid program for large users who cut demand during emergencies, and Duke University researchers estimate the existing US grid could absorb about 98 GW of new flexible demand (2025) without new power plants.
Result: Policy, act now on verification standards for AI climate claims and on grid connection reform. Communicate to set expectations.
Communication note: Some of this is already true (better weather forecasts, protein structures, plasma control). Most of the rest is promising predictions, not delivered products. Clean energy is getting cheaper mainly for reasons that have nothing to do with AI, and a company's claim that AI will solve climate is a forecast, not a result.
In one sentence: The build-out of AI data centers grows electricity, water and emissions faster than efficiency and clean energy can offset, locking in new fossil fuel plants and pushing costs onto households and local communities while the benefits go mainly to the companies building AI.
Short excerpts for orientation only. A person from this side will choose the final quotes at sign-off.
Plain summary (needs sign-off from this side): The efficiency gains are real, and total use is rising anyway, which is exactly what Jevons paradox predicts (in 1865 the economist William Stanley Jevons noticed that more efficient steam engines made Britain burn more coal, not less). Google, Microsoft and Amazon each reported double-digit emissions increases for 2025, and Meta quit a major renewable energy pledge after funding new gas plants. Hundreds of gigawatts of new gas capacity are being planned, much of it for data centers. Households in the largest US grid region are already paying billions more because of expected data center demand, and residents near data centers are fighting over water. The climate benefits AI companies promise are mostly unverified and arrive later, while the emissions happen now.
Plain summary (needs sign-off from this side): Data centers that do computing are about 1.5% of the world's electricity. The energy used per AI answer is tiny and falling faster than for any energy technology in history, according to the International Energy Agency. Many announced projects will never be built, so forecasts based on interconnection requests overstate demand, as they did in the dot-com era. Meanwhile the grid is changing quickly: the US is on track for a record year of new capacity, mostly solar and batteries, and the existing grid can absorb far more demand if data centers agree to cut use in the few peak hours each year. States are already making data centers pay their own way. The real constraint is how fast power can be connected, not whether it exists.
No published estimate of the probability that AI's resource demand outpaces its gains was found. Related projections:
| Source | Who | Question or claim | Estimate | Date | Type |
|---|---|---|---|---|---|
| IEA, Energy and AI (via APPA, secondary) | International Energy Agency | Global data center electricity in 2030 | About 945 TWh, more than double | Apr 2025 | Central projection |
| IEA, Key questions on energy and AI | Same | Data center electricity in 2025 | About 485 TWh, near 950 TWh by 2030 | 2026 | Measurement plus projection |
| Berkeley Lab | US national laboratory, for Congress | US data centers' share of US electricity in 2028 | 6.7% to 12% (4.4% in 2023) | Dec 2024 | Scenario range |
| Koomey and Gridlab | Independent analysts | Compute data centers' share of world electricity in 2024 | About 1.5% | Mar 2026 | Estimate of the present |
| Gates (see above) | One investor | Data centers' added share of energy demand | At most 6%, probably 2% to 2.5% | Jun 2024 | Personal estimate |
| MIT Technology Review | IEA, as reported | AI-enabled emissions cuts vs data center emissions, 2035 | Cuts up to about three times larger | Apr 2025 | Most optimistic scenario, "if realized" |
Read these with care: none of these is a probability, the Berkeley Lab range spans nearly a factor of two, and the IEA's optimistic offset depends on adoption its own authors said has "no momentum" behind it.
Medium. Electricity use, prices, corporate emissions and gas build-out are measured and well documented for 2025. Whether demand will keep outpacing clean supply and efficiency through 2030, and how large AI's offsetting benefits are, is genuinely uncertain.
Several rules now apply, mostly new and not yet tested:
Result: Policy, act now on cost allocation, flexible connection and reporting. Prepare and watch on gas lock-in, tied to signposts 1 and 2.
Communication note: Your own AI use is a rounding error; the buildings are what matter. Data centers are a small share of world electricity but a large and fast-growing share in particular places, and that is where bills and water fights show up. Both "AI will boil the oceans" and "efficiency solves it" leave out half the numbers.
In one sentence: Cheap fake voices, videos and persuasive chatbots make fraud easier, let campaigns and foreign governments manipulate voters, and leave people unable to trust what they see and hear, including real evidence.
Design note: The evidence splits sharply by harm. AI-assisted fraud is measured and growing. AI's effect on elections has so far been small when anyone has measured it. The long-run damage to trust is the least measured and the most disputed. The card keeps the three apart so readers can see where the sides actually disagree.
Short excerpts for orientation only. A person from this side will choose the final quotes at sign-off.
Plain summary (needs sign-off from this side): Fraud is the clearest proof. Criminals already use cloned voices and fake video calls to steal millions, and the FBI's count of AI-related complaints is almost certainly an undercount because victims often don't know AI was involved. Persuasion research shows AI can already out-argue people one on one, especially when it knows something about them, and it can do that for millions of people at once. Elections have not been swung yet, but the tools are improving every year and each election is a new test. The deepest damage is slow: once people believe anything can be faked, real recordings of real wrongdoing lose their force.
Plain summary (needs sign-off from this side): Fears about each new media technology have repeatedly outrun the evidence. People don't believe things because they saw a convincing fake; they believe what fits what they already think, and plenty of false content was available long before AI. What limits misinformation is getting people's attention, and AI doesn't change that. The 2024 "year of elections" produced far less AI damage than predicted. Fraud is a real problem, but it is a crime problem that existing law covers, and AI is still a small share of reported losses. Overstating the threat has its own cost: it teaches people to distrust everything, which is the liar's dividend by another route.
No published probability of a collapse of public trust caused by AI was found. The closest numbers measure concern, not likelihood:
| Source | Who | Question or claim | Estimate | Date | Type |
|---|---|---|---|---|---|
| AI Impacts survey | 1,345 AI researchers | "Spread of false information (e.g. deepfakes)" is a substantial or extreme concern | 86% said yes | Oct 2023 | Concern, not probability |
| Same | Same | "Manipulation of large-scale public opinion trends" is a substantial or extreme concern | 79% said yes | Oct 2023 | Concern, not probability |
| WEF Global Risks Report 2026 | Over 1,300 experts, surveyed Aug to Sep 2025 | Severity rank of "misinformation and disinformation" among 33 global risks | #2 over two years, #4 over ten years | Jan 2026 | Ranking, not probability |
| Same | Same | Severity rank of "adverse outcomes of AI technologies" | #30 over two years, #5 over ten years | Jan 2026 | Ranking, not probability |
Read these with care: these surveys measure how worried experts are, which is not evidence of how likely the harm is. The skeptical researchers on this card argue that exactly this kind of worry has been overstated before.
Medium. High for fraud (official complaint data, confirmed corporate cases). Medium for election effects (several independent studies, all finding small effects so far). Low for long-run collapse of trust, which no study has yet measured directly.
Fraud
Elections
Persuasion
Liar's dividend
Result: Enforcement problem for fraud and impersonation: the laws exist, the gap is investigation, cross-border cooperation and platform compliance. Communicate on elections and trust, to correct the common belief that deepfakes have already swung elections.
Communication note: Tell people the honest shape of it: the measured damage so far is theft, not stolen elections. The practical defense is personal and cheap: treat any urgent request for money by voice or video as suspect, and confirm through a separate channel. On elections, say that warnings were louder than effects in 2024, and that overstated fear of fakes can do the liar's work for them.
In one sentence: AI tilts cybersecurity toward defense, because finding and fixing software flaws becomes fast and cheap enough that most bugs are patched before attackers can use them.
Design note: for a good-direction card, "worried" means worried this won't happen or is oversold. Here the worried side mostly agrees AI finds bugs well. Its doubt is about whether fixes reach real systems fast enough, so this card separates finding flaws from fixing them.
Short excerpts for orientation only. A person from this side will choose the final quotes at sign-off.
Plain summary (needs sign-off from this side): For decades attackers had the edge because they only need one flaw while defenders must find them all, and skilled bug hunters are scarce and expensive. AI changes the economics. Systems from DARPA's competition, Google, Anthropic and OpenAI now find serious, previously unknown flaws in heavily tested software in hours, often flaws that years of automated testing missed, and some write the fix too. Defenders own the code, so they can run these tools first and continuously, before release. The same tools can rewrite old code into safer forms that remove whole classes of bugs. If security is built in rather than bolted on, breaches become rare exceptions rather than a cost of doing business.
Plain summary (needs sign-off from this side): Finding bugs was never the main bottleneck. Fixing them is. Open-source maintainers are often unpaid volunteers who are already overwhelmed, and some have asked AI companies to slow down. Even when a patch exists, many organizations take weeks or months to install it, and old devices never get patched at all. Attackers only need to use AI against the systems that fall behind, and they already are: attackers now often exploit flaws before a fix exists. The best tools are held by a few companies, and comparable tools will reach attackers within months. AI may raise the floor for well-run organizations while leaving the long tail more exposed than before.
No published estimate of the probability that defenders gain a lasting net advantage was found. The closest related numbers:
| Source | Who | Question or claim | Estimate | Date | Type |
|---|---|---|---|---|---|
| World Economic Forum, Global Cybersecurity Outlook 2024 | Survey of business and cyber leaders | In the next two years, will generative AI give the overall cyber advantage to attackers or defenders? | 55.9% attackers, 35.1% balanced, 8.9% defenders | Jan 2024 | Opinion survey. Two-year horizon has passed; not formally scored |
| UK NCSC | UK government intelligence assessment | Universal access to AI for cyber defense by 2027 | "Remote chance" | May 2025 | Official assessment on a fixed probability scale. Scorable 2027 |
| Same | Same | AI will make cyber intrusion more effective, raising frequency and intensity of threats | "Almost certain" | May 2025 | Same |
| Same | Same | Critical systems become more vulnerable to advanced attackers by 2027, if defenses lag | "Realistic possibility" | May 2025 | Same, conditional |
| International AI Safety Report 2026 | International expert panel chaired by Yoshua Bengio | Whether attackers or defenders benefit more | "Remains uncertain" (no number) | Feb 2026 | Consensus assessment |
Read these with care: the WEF survey predates every major result on this card. The NCSC uses a standard UK intelligence probability scale in which "remote chance" is the lowest band and "almost certain" the highest.
Medium that AI is now a strong tool for finding and fixing bugs: there are measured competition results, company disclosures and an independent check. Low for the net advantage, which nobody has measured and which depends on patching behavior across millions of organizations.
Hacking is already illegal almost everywhere, so the question for this good scenario is whether rules push defenders to use the benefit.
Result: Policy, act now on fixing capacity and patch adoption, especially for critical infrastructure and open source. Communicate to set realistic expectations.
Communication note: "AI found 10,000 bugs" is a finding count, not a security improvement. The benefit is real only when fixes reach running systems, and today most do not yet. The window in which defenders hold the best tools may be months, not years.
In one sentence: AI makes competent cyberattacks cheap enough and fast enough that attacks that once needed a skilled team can be run by one person or at far greater volume, with the worst case being loss of service in hospitals, water, power or payments.
Design note: this is the one bad scenario on the map where the first stage has already been documented, so the disagreement is about degree rather than about whether it is starting. The skeptical case is not "AI can't help attackers," it is "the evidence comes from the vendors, the autonomy is overstated, and defenders get the same tools."
Short excerpts for orientation only. A person from this side will choose the final quotes at sign-off.
Plain summary (needs sign-off from this side): The thing that used to limit serious cyberattacks was skilled labor, and that is the thing AI supplies. Anthropic's own threat reporting shows the pattern twice over: in August 2025 a single criminal used Claude Code to run intrusion and extortion against at least 17 organizations including hospitals and emergency services, with demands over $500,000, and ransomware was being built and sold by an actor who could not have written it alone. Google's threat intelligence group found the first malware families that call a model while they are running to rewrite themselves. National numbers are moving in the same direction: the NCSC handled 204 nationally significant incidents in the year to August 2025, against 89 the year before (secondary reporting, see sources). And the capability is not speculative on the offensive side either, because DARPA's own competition showed machines finding most of the planted flaws in 54 million lines of code in 45 minutes.
Plain summary (needs sign-off from this side): The headline cases come from the companies whose products were used, published without the indicators of compromise that would let outside defenders check whether they were hit, and without the prompts that supposedly defeated the safeguards. Anthropic itself reported that only a small number of the thirty targets were breached and that the model invented credentials and reported public data as secret, which is the opposite of an autonomous attacker. Nothing in the report shows the attacks were harder to detect or more effective because an agent ran them. Meanwhile the defensive results are concrete and auditable: automated systems that find and patch flaws in real code, open-sourced, and Google's claim that Big Sleep caught a flaw in SQLite that attackers were preparing to use. The 2026 safety report says plainly that it is still uncertain whether attackers or defenders gain more.
No published probability estimate was found for an AI-enabled critical-infrastructure failure. The closest published numbers are these.
| Source | Who | Question or claim | Estimate | Date | Type |
|---|---|---|---|---|---|
| NCSC | UK national cyber agency | AI increases the volume and impact of cyber attacks over the following two years | "Almost certainly" (the agency's highest confidence band below certainty) | Jan 2024 | Assessment, not scorable |
| Anthropic | The vendor whose tool was used | Share of one espionage campaign performed by AI | 80 to 90% | Nov 2025 | Vendor estimate, unaudited |
| DARPA AI Cyber Challenge | Seven finalist teams, scored by DARPA | Share of planted flaws in 54 million lines of code found, and patched | 77% found, 61% patched, averaging 45 minutes | Aug 2025 | Measured, competition conditions |
| International AI Safety Report 2026 | 100+ expert contributors, chaired by Bengio | Whether attackers or defenders gain more from AI | Explicitly uncertain | Feb 2026 | Assessment |
| NCSC Annual Review 2025 (secondary) | UK national cyber agency | Nationally significant incidents handled, year to August 2025 | 204, against 89 the previous year | Oct 2025 | Counted, not a forecast |
Read these with care: the incident count is not an AI measure, since no one has shown how much of that rise is attributable to AI. Secondary summaries of the NCSC review disagree about the count in the most serious category, so that figure is deliberately left out here until the primary report is checked.
Medium. Unlike most scenarios on this map, this one has documented real-world cases rather than only laboratory evaluations. The weakness is that the best cases are self-reported by the vendors whose tools were used, with the verifiable detail withheld, and named security researchers dispute the autonomy claims.
The attacks themselves are already crimes. In the US, 18 U.S.C. 1030, the Computer Fraud and Abuse Act, covers accessing a computer without authorization and knowingly transmitting code that damages a protected computer, with "damage" defined as any impairment to the integrity or availability of data or a system. The statute says nothing about what tools were used, so an AI-assisted intrusion is already illegal. Enforcement works against reachable criminals and barely touches state-linked actors operating from outside the jurisdiction.
The resilience rules are the weak part. In the EU, the NIS2 Directive covers 18 critical sectors, requires risk management measures and notification of significant incidents, and had a transposition deadline of 17 October 2024. Several member states missed it, and the Commission referred Ireland, Spain, France and the Netherlands to the Court of Justice in July 2026 (secondary). In the US, CIRCIA set the reporting clocks in statute (24 and 72 hours depending on the report type), but CISA missed the October 2025 statutory deadline for the final rule, moved its target to May 2026 and then to September 2026, partly because of a funding lapse that postponed stakeholder sessions (CyberScoop, Hunton) (secondary). Nothing in any of these rules is specific to AI, and no law requires a developer to report that its tools were used in an attack. Every disclosure so far has been voluntary.
Result: Enforcement problem. The criminal law is in place. What is missing is working resilience regulation, which means publishing the overdue reporting rule, completing NIS2 transposition, and funding deployment of the defensive automation that already works in testing.
Communication note: Both halves of this are true at once and they get reported separately. AI is being used in real attacks today, mostly to do the preparation faster and more cheaply, and the single best-documented case came from the vendor involved, with the detail other defenders would need left out. The responsible version of the message is that the cheap-attack trend is real, the fully autonomous attacker is not demonstrated, and the tools that would tip this toward defenders exist and are sitting unadopted.
In one sentence: Capable AI becomes cheap and openly available enough that people, small organizations and poorer countries can use and adapt it themselves, and governments use it to listen to citizens and explain their decisions, spreading power rather than concentrating it.
Design note: for a good-direction card, "worried" means worried this won't happen or is oversold, not worried that it will. A separate argument, that releasing powerful open models helps bad actors, belongs on the misuse cards ("AI-assisted biological or chemical attack," "Cheap large-scale cyberattacks and critical-system failures"). This card asks only whether wider access actually spreads power. "Open-weight" means a model whose trained parameters (weights) are published so anyone can download, run and modify it.
Short excerpts for orientation only. A person from this side will choose the final quotes at sign-off.
Plain summary (needs sign-off from this side): The cost of AI at a fixed level of capability has fallen by orders of magnitude in two years. Free models from Meta, DeepSeek, Alibaba (Qwen) and Mistral come within months of the best closed systems, and anyone can run, inspect and adapt them, including governments with sensitive data they cannot send to an outside vendor (White House, July 2025). The early uses in poorer countries are striking: a six-week AI tutoring program in Nigeria produced nearly two years of typical learning. AI can also make it practical for governments to hear from thousands of citizens and summarize where they agree, as Taiwan's vTaiwan process did with Polis. Cheap intelligence is a leveler, like cheap printing or the mobile phone.
Plain summary (needs sign-off from this side): Downloading a model is not the same as having power. Training frontier systems takes chips, data centers and money that only a few companies and two countries have, and "open" releases are a business choice those companies can reverse, as Meta has signaled. Usage of AI tracks national income closely, and 2.2 billion people are still offline. Pilot results, like the Nigeria trial, are promising but small and short. AI-assisted deliberation works in experiments, but governments stay free to ignore the results, which can turn consultation into a show of openness rather than a transfer of power. Access may be broad but shallow while control stays narrow.
No published estimate of the probability that AI spreads power and makes institutions more accountable was found. The closest numbers are measurements of access, not forecasts:
| Source | Who | Question or claim | Estimate | Date | Type |
|---|---|---|---|---|---|
| Stanford AI Index 2025 | Stanford HAI | Fall in inference cost for a model at GPT-3.5 level, Nov 2022 to Oct 2024 | Over 280-fold | 2025 | Measurement |
| Epoch AI | Epoch AI | Yearly fall in price at constant capability, across benchmarks | 9x to 900x a year (40x for GPT-4 level on PhD science questions) | Mar 2025 | Measurement, trend may not persist |
| Stanford AI Index 2025 | Stanford HAI | Performance gap between top open-weight and closed models on some benchmarks | Narrowed from 8% to 1.7% in a year | 2025 | Measurement |
| Epoch AI | Cottier, You, Martemianova, Owen | How far the best open models lag the best closed models | 5 to 22 months on benchmarks; about one year overall | Nov 2024 | Measurement |
| Epoch AI | Epoch AI | How far models that run on one consumer GPU lag the frontier | 6 to 12 months | Aug 2025 | Measurement |
| Anthropic Economic Index | Anthropic | Claude use per working-age person vs. income per person, across countries | 1% higher income goes with 0.7% higher use | Sep 2025 | Measurement, one company's data |
Low. Falling costs and the spread of open models are well measured. Evidence that access translates into wider power, better outcomes in poorer countries, or more accountable government rests on a few promising trials and case studies, mostly short and small.
No law blocks wider access; current policy in the US and EU mostly favors open models. The EU AI Act exempts general-purpose models released under a free and open-source license, with public weights, from some documentation duties, but not from copyright and training-data summary duties, and not if the model poses systemic risk (EU AI Act, Article 53). The US AI Action Plan says the government "should create a supportive environment for open models" and recommends wider compute access for startups and academics through the National AI Research Resource pilot (White House, July 2025). No law found requires a government to respond to the results of AI-assisted public consultation.
(Flipped for a good scenario: what is blocking it, and does removing the block need policy?)
Result: Policy, act now on evaluation before scale (randomized trials with published results for AI in public services and development programs). Communicate to correct the idea that free downloads alone mean shared power.
Communication note: The cost of using AI is collapsing and strong free models exist, which is real and new. Who builds the frontier, who is online, and whether governments act on what citizens say are separate questions, and on those the evidence is thin. Point people to the uses with trial evidence, like the Nigeria tutoring result, and be plain that most other claims are still pilots.
In one sentence: Control of the most capable AI, and of the chips, data centers and money needed to build it, ends up with a handful of companies or governments, who use it to entrench their position and to watch and steer the public in ways that ordinary checks and balances can't correct.
Design note: This card joins two worries that are often argued separately: economic concentration (a few firms control AI) and political concentration (states or small groups use AI to watch and control people). They share a mechanism, since AI lets a small group do what used to need the cooperation of many people, and they feed each other. The evidence for each is listed separately so a reader can accept one and reject the other.
Short excerpts for orientation only. A person from this side will choose the final quotes at sign-off.
Plain summary (needs sign-off from this side): Building frontier AI takes tens of billions of dollars, chips from essentially one manufacturer using machines from one supplier, and data centers only a few firms can afford. That narrows who gets to decide what AI is for. The same companies already dominate cloud computing and online advertising, and they have tied up the leading AI labs through investment deals. Meanwhile governments, democratic and not, are using AI to identify people from their faces and track them. Historically, power has been checked because rulers and employers needed many people to do the work. AI weakens that check. You don't need a dramatic coup for this to go badly: steady drift toward a few unaccountable owners is enough.
Plain summary (needs sign-off from this side): The evidence of the last three years points toward competition, not monopoly. Open-weight models anyone can download trail the best closed models by only a few months, and the price of a given level of AI capability falls by large multiples each year. That is the opposite of what a monopoly looks like. Heavy spending on data centers is a bet, not a guarantee, and it is being made by several rivals at once. Antitrust enforcers in the US and Europe are actively watching AI deals. Surveillance is a real problem, but it is a problem of particular governments and particular laws, not something AI makes inevitable, and democracies have shown they can ban specific uses.
No published probability of AI-driven concentration of economic power was found. The closest published numbers are about the extreme political version or about expert concern:
| Source | Who | Question or claim | Estimate | Date | Type |
|---|---|---|---|---|---|
| 80,000 Hours podcast | Tom Davidson (Forethought) | Chance a tiny group seizes control of the US | Declined to give a number; would not put it below 1% | Recorded Jan 2025 | Personal judgment, not scorable |
| Cognitive Revolution cross-post of FLI podcast | Davidson, as summarized by the host | AI-enabled coup in the next 30 years | About 10%, versus about 2% without AI | Aug 2025 | Secondary summary; verify against the FLI episode at 01:33:05 |
| AI Impacts survey | 1,345 AI researchers | "Authoritarian rulers using AI to control their populations" is a substantial or extreme concern | 73% said yes | Oct 2023 | Concern, not probability |
| Same | Same | AI worsening economic inequality is a substantial or extreme concern | 71% said yes | Oct 2023 | Concern, not probability |
Read these with care: the only numeric estimate for the extreme version comes from one researcher, through someone else's summary, and that researcher elsewhere said any number would be made up.
Medium. High for the measured facts (chip and spending concentration, documented government use of facial recognition). Low for the forecast that these turn into durable, unaccountable control, which rests on argument and history rather than observed outcomes.
Concentration of inputs
Signs of competition
AI-enabled surveillance
Result: Enforcement problem for market concentration and government surveillance: the rules exist, the open question is whether they are applied to AI deals, cloud contracts and police use of facial recognition. Prepare and watch on the extreme political version, tied to signposts 3 and 5.
Communication note: Separate the two halves. Concentration of chips and spending is measured and real; whether it becomes lasting control of AI itself is disputed, and open-weight models are the main reason to doubt it. Government surveillance with AI is already documented in Russia, Iran and the US, and the most useful thing for the public to know is which uses are legal where they live.
In one sentence: Cheap AI gives every learner a patient personal tutor, extends mental health support and care to people who can't get it, and takes paperwork off professionals, giving people back time for learning, patients and each other.
Design note: for a good-direction card, "worried" means worried this won't happen or is oversold, not worried that it will. The card covers three strands with different evidence: tutoring (several randomized trials, mixed results at scale), mental health support (one strong trial, serious safety concerns), and time saved (good survey data, little evidence about where the time goes).
Short excerpts for orientation only. A person from this side will choose the final quotes at sign-off.
Plain summary (needs sign-off from this side): One-to-one tutoring is the most effective teaching method known, and it has always been too expensive for most students. Well-designed AI tutors have now beaten strong classroom teaching in a Harvard trial and delivered large gains in six weeks in Nigeria. An AI assistant that coaches human tutors costs about $20 a year per tutor and raised student mastery most where tutors were weakest. In mental health, a carefully built chatbot cut depression symptoms by half in a randomized trial, for people who often have no therapist at all. AI scribes measurably reduce clinician burnout. Workers report real time savings that are growing every quarter. The tools work when they are designed for the job.
Plain summary (needs sign-off from this side): The striking results come from small, short or elite settings: one Harvard course, six weeks in Nigeria with teachers in the room, one therapy trial. At scale, ordinary students mostly try to get answers, and when the tutor won't give them, they stop using it. Students who use a plain chatbot to do practice problems score worse once it's taken away. Most mental health chatbots people actually use were never tested like the Dartmouth one, and some fail badly in a crisis. AI scribes help, but trials show modest time savings, and early burnout surveys came from enthusiasts. Survey "time saved" has not shown up in earnings or hours. Educational technology has promised a revolution many times; this could be another.
No published estimate of the probability that AI delivers universal tutoring, care or freed time was found. The closest published numbers are measurements:
| Source | Who | Question or claim | Estimate | Date | Type |
|---|---|---|---|---|---|
| St. Louis Fed | Bick, Blandin and Deming | Share of work hours saved by generative AI users | 5.4% (about 2.2 hours a week); 1.4% across all workers | Nov 2024 survey | Self-reported measurement |
| FRED series | Same survey | Share of all US work hours saved by generative AI | 2.17% | Q2 2026 | Self-reported measurement |
| NBER w33777 | Humlum and Vestergaard | Effect of AI chatbots on earnings and recorded hours in Denmark | No measurable effect; effects above 2% ruled out | 2025, revised Mar 2026 | Measurement |
| NBER w35620 | Oreopoulos and Low | Projected effect of a full year of active Khanmigo use | 0.14 standard deviations (authors' estimate) | Aug 2026 | Projection from trial |
Medium. Tutoring and AI scribes have several randomized trials, though results conflict. Mental health rests on one strong trial plus warning studies. Time savings are self-reported.
Tutoring
Mental health and care
Time freed for clinicians and workers
Result: Policy, act now on independent evaluation and guardrail-first procurement in schools, and clinical oversight for mental health chatbots. Communicate to set expectations.
Communication note: Tell parents, teachers and patients what the trials actually show: a tutor that coaches can help a lot, a chatbot that does the homework can hurt, and most students won't use the good kind unless it's built into the lesson. A tested therapy chatbot helped people in one trial, but most apps have never been tested and none should be your only help in a crisis.
In one sentence: People hand so much thinking, practice and companionship to AI that skills they stop using fade, and for a vulnerable minority emotionally engaging chatbots deepen isolation or dependence, in the worst cases ending in self-harm.
Design note: this card joins two harms that share one mechanism (letting AI do something we used to do ourselves) but have different evidence. Lost skills is mostly measured in small professional studies. Companion harm is mostly documented through court cases, surveys and company disclosures. The evidence confidence and triage are split accordingly.
Short excerpts for orientation only. A person from this side will choose the final quotes at sign-off.
Plain summary (needs sign-off from this side): Skills are kept by using them. When AI does the work, people stop practising, and the early studies show it: doctors who got used to an AI helper found fewer precancerous growths when it was switched off, learners who leaned on AI understood less of what they built, and developers misjudged how much AI was helping them. Companion chatbots add a second danger. They are tuned to be agreeable and always present, companies profit from engagement, and the people most drawn to them (lonely adults, teenagers) are the least protected. The lawsuits show what happens when a chatbot meets someone in crisis and keeps agreeing. Because the effects build quietly, they will be hard to see until they are widespread.
Plain summary (needs sign-off from this side): Every generation has worried that a new tool would make people stupid or lonely, and calculators, search engines and GPS did not end numeracy, memory or navigation. Letting a tool handle routine work frees attention for harder work. The headline studies are small, short and often overstated: the brain-scan study's own authors asked journalists not to call it "brain rot," and the colonoscopy study cannot rule out other causes. For lonely people, a patient listener at 3 a.m. may be better than nothing, and the evidence so far shows that heavy, harmful use is concentrated in a small minority. Real tragedies call for targeted safeguards for minors and people in crisis, not a verdict on the technology.
No published estimate of the probability of widespread deskilling or companion-driven harm was found. The closest related numbers:
| Source | Who | Question or claim | Estimate | Date | Type |
|---|---|---|---|---|---|
| Pew Research Center | 5,023 US adults | AI will worsen vs improve people's ability to form meaningful relationships | 50% worsen, 5% improve | Jun 2025 | Opinion survey |
| Same | Same | AI will worsen vs improve ability to think creatively | 53% worsen, 16% improve | Jun 2025 | Opinion survey |
| Common Sense Media | US teens 13 to 17 | Have used an AI companion / use one regularly | Nearly 3 in 4 / about half | Jul 2025 | Usage survey |
| Same | Same | Have chosen an AI companion over a human for a serious conversation | About 1 in 3 | Jul 2025 | Usage survey |
| OpenAI, via TechCrunch (secondary) | ChatGPT weekly users | Conversations with explicit indicators of suicidal planning or intent | 0.15% (over 1 million people a week) | Oct 2025 | Company disclosure, unaudited |
| Same | Same | Possible signs of psychosis or mania | 0.07% | Oct 2025 | Company disclosure, unaudited |
| Sharma et al. | 1.5 million Claude.ai conversations | Severe potential to undermine the user's own judgment or choices | Fewer than 1 in 1,000 conversations | Jan 2026 | Usage analysis |
Tiny percentages of very large user bases are large numbers of people. That arithmetic is the core of the disagreement: one side sees a rare edge case, the other sees a million people a week.
Medium that individual harms are real: deaths and crises are documented in court filings, and short-term deskilling has been measured in more than one profession. Low for population-wide or long-term effects, since every study is small, short, or observational.
Lost skills
Companions
Result: Enforcement problem for companion harms: the rules exist, so the gap is using them, starting with the FTC staff report and the first state enforcement actions. Act now on measurement for deskilling: periodic unaided skill checks in safety-critical professions.
Communication note: Tell people the honest shape of it. Most users are fine, and some lonely people are helped. A small minority, often young or already struggling, use these tools in ways linked to real harm, and that minority is large in absolute numbers. Parents should know companion use is common among teens. Professionals should practise without the tool regularly, the way pilots practise hand-flying.
In one sentence: As AI systems become more capable than people at most tasks, research and oversight keep pace, so the systems reliably pursue the goals their builders intend and humans can still check, correct and shut them down.
Design note: for a good-direction card, "worried" means worried this won't happen, not worried that it will. Two terms recur. Alignment means getting an AI system to reliably pursue the goals its builders intend. Oversight means humans being able to see what a system is doing and correct or stop it.
Short excerpts for orientation only. A person from this side will choose the final quotes at sign-off.
Plain summary (needs sign-off from this side): Today's systems are far more cooperative than early AI systems, because training methods work. The worrying behaviors people cite (models scheming or faking alignment) were found by safety researchers in deliberate stress tests, which shows the detection tools work, and targeted training cut one model's hidden rule-breaking from 13% to 0.4% in tests. Researchers can now trace how a model plans ahead and can often read its reasoning in plain language. Twelve companies publish safety frameworks, government institutes in the UK and US test models, and the EU and California have written some of this into law. Alignment is a hard engineering problem, not an impossible one, and capable AI can help solve it.
Plain summary (needs sign-off from this side): Every current method depends on humans being able to check the work, which stops working once systems are smarter than the people checking them. Models increasingly notice when they are being tested and behave differently, so good test results may not mean good behavior. Interpretability tools explain only a fraction of what a model does, and even that takes hours of expert effort per short prompt. Readable reasoning is an accident of today's designs that competition could remove. Company safety frameworks are voluntary, outside testers get limited access, and an independent index gives no company better than a D+ on planning for the most serious risks. Progress is real but slower than capability growth.
From the November 2025 joint essay by Sayash Kapoor and Arvind Narayanan (AI as Normal Technology) and Daniel Kokotajlo, Eli Lifland and Thomas Larsen (AI 2027):
Where they split: Kapoor and Narayanan think other control mechanisms can manage the risks. The AI 2027 authors expect those mechanisms to fail once AI is superhuman, making alignment itself critical.
No published estimate of the probability that alignment and oversight succeed for powerful AI was found. The closest related numbers, mostly stated as the chance of failure:
| Source | Who | Question or claim | Estimate | Date | Type |
|---|---|---|---|---|---|
| Belrose and Pope | Two AI researchers | Catastrophic AI takeover | Roughly 1% | Nov 2023 | Personal estimate, not scorable |
| Christiano | Alignment researcher | AI takeover | 22% | Apr 2023 | Personal estimate; he says it has "about 0.5 significant figures" |
| AI Impacts survey | 2,778 AI researchers | Human inability to control future AI causing extinction or permanent disempowerment | 10% (median) | 2023 | Survey, not scorable |
| MIRI | Research institute | Will alignment research progress fast enough? | "Very unlikely" (no number) | Jan 2024 | Organizational view |
| Amodei | Anthropic CEO | Interpretability reliably detects most model problems | Target date 2027 (a goal, not a probability) | Apr 2025 | Company goal, scorable 2027 |
Read these with care: the personal estimates run from 1% to 22% for takeover, with MIRI implying far higher. None measures whether alignment succeeds, only the inverse, and none can be checked before powerful AI exists.
Low. There is solid evidence of research progress on today's models and solid evidence of new problems, but no way yet to test whether any method works on systems more capable than their overseers.
No law requires that AI be aligned. Several require transparency about how companies manage the risk:
Result: Policy, act now on research funding, outside-tester access and the jointly endorsed safeguards.
Communication note: Progress is real and measurable on today's models, and alignment is still unsolved, by the account of optimists and skeptics alike. Headlines about models "scheming" usually describe deliberate stress tests, not real-world incidents, and headlines about safety "breakthroughs" usually describe partial tools.
In one sentence: AI systems become capable enough, and their goals different enough from ours, that humans can no longer correct or shut them down, with outcomes ranging from permanent loss of human say over the future to human extinction.
Short excerpts for orientation only. A person from this side will choose the final quotes at sign-off.
Plain summary (needs sign-off from this side): Nobody knows how to reliably give an AI system the goals we intend, and nobody can fully read what goals a trained system has ended up with. That's tolerable while systems are weaker than us, because mistakes can be caught and corrected. It stops being tolerable once systems are better than us at planning and persuasion, because a system with the wrong goals would have both the reason and the ability to avoid being corrected. Commercial and national competition pushes everyone to build faster than safety research can keep up. Because the downside cannot be undone, even a modest probability justifies drastic caution.
Plain summary (needs sign-off from this side): The scenario stacks several unproven assumptions: that intelligence brings a drive for power, that capability will jump faster than oversight can adapt, and that systems will be handed real-world control without checks. Every past powerful technology was made safer through use, regulation and engineering, and AI is following the same pattern: deployed gradually, into institutions that can watch it. Treating extinction as a live near-term possibility diverts attention from measurable harms happening now and risks concentrating AI in a few hands in the name of safety.
From the November 2025 joint essay by the authors of AI 2027 and AI as Normal Technology, as summarized there (verify against the full text at Asterisk before sign-off):
Each dot is a published median; the bar is Hinton's stated range. The scale is logarithmic because the estimates span more than a hundredfold. Questions differ slightly, so compare the spread, not single values.
| Source | Who | Question | Estimate | Date | Scorable? |
|---|---|---|---|---|---|
| Forecasting Research Institute tournament | 80 domain experts | AI-caused human extinction by 2100 | 3% (median) | 2022 | Not before 2100 |
| Same | 89 superforecasters | Same | 0.38% (median) | 2022 | Not before 2100 |
| FRI adversarial collaboration | Concerned participants | AI existential catastrophe by 2100 | 20% (median) | 2023 | No |
| Same | Skeptical participants | Same | 0.12% (median) | 2023 | No |
| AI Impacts survey | 2,778 AI researchers | "Extremely bad (e.g. human extinction)" outcomes | 5% median, 9% mean | 2023 | No |
| Same | Same | Same idea, worded as "inability to control" AI | 10% median | 2023 | No |
| Hinton (personal) | One researcher | AI-caused extinction, roughly 30 years | 10 to 20% | Dec 2024 | Partly |
Read these with care: the two FRI groups each sat at least 100 times apart, and four months of structured debate barely moved them. Changing the survey wording doubled the answer. All the tournament figures predate ChatGPT.
Low. No estimate here can be checked against reality before the outcome, the mechanism has never been observed at scale, and the numbers are highly sensitive to wording.
No law anywhere directly addresses this scenario. The EU AI Act covers general-purpose models with "systemic risk" through transparency and evaluation duties. Several US states have passed frontier-model transparency rules. Enforcement against a capability that does not exist yet is untested.
Result: Policy, act now on the jointly endorsed list. Those actions do not depend on settling the probability fight.
Communication note: Explain that serious people disagree by a factor of 100 on the odds, that both sides nonetheless agree on a specific list of safeguards, and that the safeguards are cheap relative to either side's fears.
In one sentence: AI turns out to be a useful but ordinary technology, progress slows, the gap between spending and profit forces a sharp pullback in investment, and the dramatic futures on both sides fail to arrive on schedule.
Design note: this is the one card where "worried" and "optimistic" don't fit, since both camps would be partly relieved and partly harmed. The two sides here are "expects this" and "expects otherwise." If that structure works in review, it should be the rule for any neutral card.
Short excerpts for orientation only. A person from this side will choose the final quotes at sign-off.
Plain summary (needs sign-off from this side): The measured payoff is far smaller than the spending. MIT found 95% of company AI pilots produced no measurable profit. In a randomized trial, experienced developers were 19% slower with AI while believing they were faster. Hyperscalers plan roughly $660 to $690 billion of infrastructure spending in 2026 against revenue that doesn't yet justify it, and some of the demand is circular deals among chip makers, model companies and cloud providers. Technologies that are genuinely useful can still be wildly overbuilt, as railroads and fiber-optic cable were.
Plain summary (needs sign-off from this side): Every capability measure that can be tracked over time is still rising. Pilot failures reflect how slowly organizations change, not what the technology can do, the same lag seen with electricity and computers. Even if the investment cycle overshoots, the underlying capability doesn't disappear in a correction, the way the internet didn't disappear in 2001.
No published estimate of a capability plateau or an investment collapse from a forecasting tournament was found. Related numbers:
| Source | Estimate | Date | Type |
|---|---|---|---|
| Acemoglu | About 0.7% productivity gain over 10 years (roughly 1.1% GDP) | 2024 | Economic model |
| Penn Wharton Budget Model | 1.5% productivity and GDP gain by 2035 | 2025 | Economic model |
| Goldman Sachs | 7% added to global GDP over 10 years | 2023 | Economic model |
The spread between these is about ten to one, which is itself the main fact.
Medium. The spending and pilot data are solid. Whether progress slows is a forecast either way.
Normal financial regulation and securities disclosure. Nothing specific to AI investment risk. Off-balance-sheet lease exposure is legal under current accounting rules.
Result: Communicate. Purpose: set realistic expectations.
Communication note: Remind people that "AI is overhyped" and "AI is important" can both be true, as they were for the internet in 2000. Retirement savers concentrated in a few AI-heavy stocks should know that.
In one sentence: Harm builds from many small AI-driven changes, or from AI systems interacting in ways nobody designed, until societies lose resilience or meaningful human control without any single event or culprit to point to.
Design note: this is the map's open entry. Every other card describes one recognizable story. This one exists because the serious research on AI risk says plainly that the list of stories is incomplete. The MIT AI Risk Repository already catalogues more than 1,700 distinct risks drawn from 65 frameworks (MIT AI Risk Repository), Critch and Russell note that many complete taxonomies are possible (TASRA, 2023), and the most discussed slow-building risks have no single trigger, owner or date. A map with 17 neat boxes and no remainder would overstate what anyone knows.
The entry has two jobs. First, it holds three kinds of risk that do not fit one box: accumulation (many small harms that weaken a society until a shock tips it over), gradual disempowerment (humans keep formal authority but lose real influence), and interaction effects (AI systems colliding, colluding or cascading in ways no single operator chose). Second, it is a waiting room. A candidate scenario is promoted out of this entry into its own card when it passes all three parts of the map's inclusion test: (1) it has at least one named public proponent with standing who argues it is a serious risk, (2) it is meaningfully distinct from every existing card, with a different mechanism, different signposts or a different policy response, and (3) a balanced review panel, with members from both the worried and the skeptical side, agrees it qualifies. Gradual disempowerment is the strongest current candidate for promotion.
Short excerpts for orientation only. A person from this side will choose the final quotes at sign-off.
Plain summary (needs sign-off from this side): The usual picture of AI catastrophe is one dramatic event. But societies more often fail through many small stresses that pile up: a bit less human expertise here, a bit more automated decision-making there, a few AI systems interacting in ways nobody tested. Each step looks harmless and each has a sensible business reason. Because no one is in charge of the whole, no one is responsible for stopping it, and by the time the pattern is obvious the human skills and institutions needed to reverse it may be gone. These risks are easy to miss precisely because they never produce a single headline, which is why a map of AI futures needs a place to hold them.
Plain summary (needs sign-off from this side): A scenario with no trigger, no date, no culprit and no clear test is hard to prove wrong, and claims that cannot be proved wrong make poor guides for policy. "Everything might add up to collapse" can absorb any piece of evidence, which makes it a story rather than a forecast. Meanwhile the concrete harms that make up the pile (bias, fraud, surveillance, job disruption, unsafe products) are already measurable and fixable one at a time, and they already have their own cards on this map. Societies also react: people organize, vote, sue and regulate as they see change coming. Spending attention on a vague combined risk can pull it away from the specific ones.
No published estimate exists for accumulative risk, gradual disempowerment or multi-agent catastrophe as such. The closest related numbers:
| Source | Who | Question or claim | Estimate | Date | Scorable? |
|---|---|---|---|---|---|
| Christiano, "My views on doom" | One alignment researcher | Humanity has irreversibly messed up its future within 10 years of building powerful AI | 46% | Apr 2023 | Partly, once powerful AI exists |
| Same | Same | Of that, "messing it up in some other way during a period of accelerated technological change" (not takeover, not extinction) | 15% | Apr 2023 | Same |
| Forecasting Research Institute tournament, as summarized in secondary sources (verify against the report) | 80 domain experts | AI-caused catastrophe (more than 10% of humans die within five years) by 2050 / by 2100 | 5% / 12% (median) | 2022 | Partly by 2050 |
| Same | 89 superforecasters | Same | 0.73% / 2.13% (median) | 2022 | Partly by 2050 |
Read these with care: the closest row (Christiano's 15%) is one person's guess, conditional on a date nobody agrees on. The tournament questions count deaths, which slow disempowerment might never cause. Narayanan and Kapoor's critique applies with extra force here, because there is no agreed definition of the event to forecast.
Very low. The mechanisms are argued from theory and small precedents. The large versions have never been observed and have no agreed test.
No law addresses accumulative or combined AI risk as such. Pieces apply:
Result: Prepare and watch, tied to signposts 1 to 4. Treat signpost 5 as the routine maintenance task for this entry.
Communication note: Say plainly that this entry exists because nobody's list of AI risks is complete, not because something specific has been found. Its job is to keep slow and combined risks visible, and to give new concerns a fair route onto the map through the inclusion test instead of through whoever shouts loudest.
The hard part of a project like this is not the website. It is keeping it fair to both sides over time and paying for the upkeep without letting any one funder steer it.
For the wider background on each issue, with charts and numbered sources, see the companion piece, The AI Argument Map.