How accurate have AI job-loss predictions been?
Short answer
Where these predictions can be tested, the pattern is consistent in one direction: too dramatic and too fast. Employment in the occupations Frey and Osborne flagged as high risk in 2013 grew over the following five years rather than shrinking. Of the 271 detailed occupations in the 1950 United States census, exactly one, elevator operators, was later judged to have been eliminated largely by automation. But the record is not a clean win for the calm side: across 21 countries the riskier half of occupations grew markedly more slowly than the safer half, telephone operators really were largely automated away, and the bank teller story usually told as the optimistic case has an ending that is rarely quoted.
The 47%, five years later
The 47%, Frey and Osborne's high-risk share of United States employment, fixed no calendar date, though its authors did expect the high-risk jobs could be automated "perhaps over the next decade or two", as the tasks-versus-titles page covers.1 That hedge is loose, but it is what makes the scores testable at all.
The closest thing to a direct test comes from Coelli and Borland, who ran the Frey and Osborne scores against subsequent United States employment change. They estimate that employment in the occupations scored as high risk grew by around 7.4% between 2013 and 2018, an employment-weighted regression estimate rather than a raw count.2 Using the full continuous probabilities rather than the high-risk cut, they find a statistically significant negative relationship with employment change (p = 0.006), but an R-squared of 0.024: the scores explain roughly 2% of the variation.2 And once they control for the routine-task measures economists were already using, the Frey and Osborne relationship loses significance entirely (p = 0.704), meaning the scores added no forecasting power over the existing framework.2
A separate tally by the Information Technology and Innovation Foundation, a think tank rather than a peer-reviewed retrospective, checked individual occupations to the end of 2021. Insurance underwriters, which Frey and Osborne scored at a computerisation probability of 0.99,1 grew 16.4%.3 Recreational therapists, whom they ranked least likely to be automated, declined 8.9%.3
Where the two retrospectives disagree
The ITIF tally reports the correlation between Frey and Osborne risk and actual job loss as negative and modest, at 0.26. In their data the occupations rated riskiest lost slightly fewer jobs, the opposite of the direction the scores predicted.3
An OECD analysis across 21 countries points the other way. Between 2012 and 2019, employment in the riskiest half of occupations grew 6.1% while the least risky half grew 17.8%.4 On that measure the automation literature had the direction right and only the magnitude and the vocabulary wrong: slower growth is not disappearance, and "at risk" was read by almost everyone as the latter.
The two are not strictly contradictory, because they use different risk measures, different countries and different windows. The retrospective evidence is not settled, and the two studies point in opposite directions.
The bank teller story, finished
The most repeated counter-example in this whole field is the automated teller machine. The usual telling: ATMs arrived, and the number of bank tellers went up, because cheaper branches meant banks opened more of them. That telling is accurate and sourced: full-time-equivalent teller employment grew about 2.0% a year from 2000,5 and tellers per urban branch fell from 20 to 13 between 1988 and 2004 while urban branches rose 43%.6
It also stops in 2013, which is where the data in Bessen's working paper end. Here is what happened next. Teller employment in the United States was 545,300 in 2012 and 364,100 by 2022, a fall of 33%, and 347,400 by 2024. Official projections for 2024 to 2034 have it falling a further 13%.7
Both halves are true, and the order matters. Employment held up for roughly two decades while branch numbers grew, then fell hard once that expansion stopped. Bessen set the same shape out as an inverted U in later work: employment rises while a cheaper service expands demand, and falls once demand stops responding to price. He develops it for manufacturing industries such as textiles rather than for tellers.8 Anyone citing the first half without the second is quoting a genuine finding to support a conclusion its own author did not reach.
The professionals missed it too. The Bureau of Labor Statistics projected in its 2012 to 2022 round that teller employment would grow 1%, to 551,000. The actual 2022 figure was 364,100, meaning the official projection was about 51% above the outcome.7 These are professional statisticians using established methods, and the direction they missed was the optimistic one.
How often is an occupation actually eliminated?
James Bessen tracked the 271 detailed occupations in the 1950 United States census forward to 2010 and concluded that in only one case, elevator operators, could an occupation's disappearance be attributed largely to automation.5 He also notes that of the 37 occupations Frey and Osborne's panel judged fully automatable with 2013 technology, none had been completely automated.5 In the nineteenth century, 98% of the labour needed to weave a yard of cloth was automated and the number of weaving jobs went up.5
Against that, a genuine elimination case. Between 1920 and 1940 AT&T mechanised switching across more than half the United States telephone network, and most telephone operator jobs went away.9 The researchers who documented it add the part that matters for anyone drawing lessons: incumbent operators were measurably hurt, but later cohorts of young women moved into clerical and service work, so overall employment among later cohorts of young women in those cities did not fall.9 Occupations can be eliminated. The people already in them bear the cost; the aggregate often absorbs it.
The forecasts nobody graded
The World Economic Forum has published employer-survey forecasts for a decade, and three of them have now passed their horizon.
| Forecast | Horizon | What it said | Graded? |
|---|---|---|---|
| WEF 2016 | by 2020 | Net loss of more than 5.1 million jobs | No |
| WEF 2018 | by 2022 | Net gain of 58 million jobs | No |
| WEF 2020 | by 2025 | 85 million displaced, 97 million created | No |
| WEF 2025 | by 2030 | 92 million displaced, 170 million created | Not yet testable |
In searches conducted in August 2026 we could not find a published retrospective of any of the three expired forecasts, from the Forum or from anyone else.10 Note also the reversal: in 2016 the outlook was a net loss of about 5 million by 2020; two years later the same exercise projected a net gain of 58 million by 2022.10
How these numbers are built matters. In the 2018 edition, the survey responses applied to a sample of over 15 million workers implied a decline of 0.98 million jobs and a gain of 1.74 million. Those were then extrapolated across large-firm, non-agricultural employment worldwide to produce a range of estimates, one of which is the headline 75 million displaced and 133 million created. The report says the estimates "should be treated with caution, not least because they represent a subset of employment globally".10 The 2020 report's 85 million figure covers 15 industries and 26 economies; the executive summary states that scope once, then quotes the figure without it, and the Forum's press release turned the report's hedged "may be displaced" into "will disrupt 85 million jobs globally".10
The Forum is explicit about the limits of the method, at least inside the reports. Of the survey subset behind its 2025 projections, covering 1.18 billion workers, it writes that the conclusions "should not be treated as comprehensive, but rather as providing insights on selected segments of the global workforce".10
Why the misses look the way they do
Forecasts measure technical capability and skip adoption, which is slower, costlier and more regulated than capability alone suggests. They count the jobs a technology removes and not the ones it creates or expands, which the weaving and early bank-teller cases show can dominate for a long time. And they are usually reported without their own hedges: the underlying papers say "potentially automatable" and "may be displaced", and the coverage says "will lose".
What this means for you
Treat every big round number about AI and jobs, including the ones on this site, as a description of overlap rather than a schedule. Ask what is being counted, over what period, and whether anyone has ever checked the last forecast from the same source. On the graded record the two retrospectives still point in opposite directions and neither is decisive: the ITIF tally finds the riskiest occupations lost slightly fewer jobs, the OECD comparison finds they grew markedly more slowly. What both rule out is the headline reading, occupations vanishing on schedule. Evidence on economy-wide displacement remains thin, and what the labour-market data currently shows covers it in detail.
- Carl Benedikt Frey and Michael A. Osborne, The Future of Employment: How Susceptible Are Jobs to Computerisation?, Oxford Martin School, 2013. Full text (PDF). Quoted: the authors' expectation that high-risk jobs could be automated "perhaps over the next decade or two"; their statement that they make no attempt to estimate the number of jobs that will actually be automated; and the per-occupation computerisation probabilities used above, including 0.99 for insurance underwriters and the lowest score of all 702 for recreational therapists. Why risk is measured in tasks sets out the method behind the 47%.
- Michael Coelli and Jeff Borland, Behind the Headline Number: Why not to Rely on Frey and Osborne's Predictions of Potential Job Loss from Automation, Melbourne Institute Working Paper, 2019. Quoted from their regression table: employment in Frey and Osborne high-risk occupations growing around 7.4% between 2013 and 2018; a statistically significant negative relationship using the continuous probabilities (p = 0.006) with an R-squared of 0.024; and the relationship losing significance (p = 0.704) once routine-task and cognitive/manual controls are added. These are regression estimates, not raw employment counts.
- Robert D. Atkinson, Oops: The Predicted 47 Percent of Job Loss From AI Didn't Happen, Information Technology and Innovation Foundation, 30 September 2022, using BLS occupational employment data from 2013 to the end of 2021. Quoted: insurance underwriters, which ITIF describes as among the highest-risk occupations, growing 16.4%; recreational therapists, described as least likely to be automated, declining 8.9%; and a negative correlation of 0.26 between computerisation risk and actual job loss. The underlying probability scores and rankings are Frey and Osborne's, cited separately as source 1. This is a think-tank analysis rather than a peer-reviewed retrospective.
- Alexandre Georgieff and Anna Milanez, What happened to jobs at high risk of automation?, OECD Social, Employment and Migration Working Papers No. 255, 2021. oecd.org. Quoted: employment in the riskiest half of occupations growing 6.1% against 17.8% in the least risky half, averaged across 21 countries between 2012 and 2019. The risk measure is Nedelkoska and Quintini (2018) rather than Frey and Osborne, and the country set differs from the two United States retrospectives above, which is part of why the direction of the findings differs. The OECD also notes that this window coincides with the recovery from the global financial crisis. OECD working papers do not represent official OECD views.
- James Bessen, How Computer Automation Affects Occupations: Technology, Jobs, and Skills, Boston University School of Law, Law and Economics Working Paper No. 15-49, May 2016 version. Full text (PDF). Quoted: full-time-equivalent teller employment growing about 2.0% per year since 2000 on data running to 2013; the 271 detailed 1950 census occupations tracked to 2010 with elevator operators the single case attributed largely to automation; none of the 37 occupations judged fully automatable in 2013 having been completely automated; and the nineteenth-century weaving case. Note that the earlier November 2015 draft of this paper, which is the copy hosted at bu.edu, contains the teller and weaving material but not the 1950 census or 37-occupation passages.
- James Bessen, Toil and Technology, Finance & Development, International Monetary Fund, March 2015, drawing on his book Learning by Doing (2015). Quoted: tellers required to operate a branch office in the average urban market falling from 20 to 13 between 1988 and 2004, and urban bank branches increasing 43 percent. These branch figures come from this article and the book, not from the working paper cited as source 5.
- U.S. Bureau of Labor Statistics, Employment Projections and Occupational Outlook Handbook for Tellers (SOC 43-3071). bls.gov/ooh. Employment Projections base-year figures: 545,300 (2012), 364,100 (2022), 347,400 (2024), with a projected 13% decline to 302,500 by 2034 in the 2024 to 2034 projections round. The linked page always shows the most recent projections round, so its base year and percentages will differ from these once a later round is published. The 2012 to 2022 projection round forecast growth of 1% to 551,000 against an actual 2022 base-year figure of 364,100. BLS attributes the decline to falling branch numbers, online and mobile banking, and more capable ATMs.
- James Bessen, AI and Jobs: The Role of Demand, National Bureau of Economic Research Working Paper 24235, January 2018. nber.org. Quoted: the inverted-U relationship between automation and employment, where employment rises while a cheaper service expands demand and falls once demand stops responding to price. Bessen develops this pattern for manufacturing industries such as textiles, steel and cars. He does not apply it to bank tellers, and this page's use of it for the teller case is an inference from his framework rather than a claim he makes.
- James Feigenbaum and Daniel P. Gross, Answering the Call of Automation: How the Labor Market Adjusted to Mechanizing Telephone Operation, Quarterly Journal of Economics, 2024. Quoted: AT&T mechanising switching across more than half the United States network between 1920 and 1940, eliminating most operator positions, while later cohorts were absorbed into clerical and lower-skill service work so that overall employment among later cohorts of young women did not fall. Incumbent operators were measurably worse off a decade later.
- World Economic Forum, Future of Jobs reports of 2016, 2018, 2020 and 2025, with their accompanying press releases. weforum.org. Quoted: the 2016 forecast of a net loss above 5.1 million jobs by 2020 from a survey of 371 employers; the 2018 forecast of a net gain of 58 million by 2022, built by extrapolating 984,000 surveyed job declines to 75 million; the 2020 forecast of 85 million displaced and 97 million created by 2025, covering 15 industries and 26 economies; the press-release conversion of "may be displaced" into "will disrupt"; and, from the 2025 report, the statement that conclusions derived for its 1.18 billion worker survey subset "should not be treated as comprehensive, but rather as providing insights on selected segments of the global workforce". The 2018 figures are the survey responses applied to a sample of over 15 million workers, giving 0.98 million fewer and 1.74 million more jobs, then extrapolated to 75 million and 133 million. All of these are aggregated employer expectations, not measurements. No published retrospective assessment of the expired 2016, 2018 or 2020 forecasts was located in searches conducted on 22 August 2026.
Every figure above is quoted with the caveat its own source states. Last verified 2026-08-22. Scores and bands used on this site are documented on the methodology page.