Notes

Is AI taking jobs? What the data and history show

Is AI taking jobs? Explore employment data, lessons from past automation, and why faster work can mean fewer hires or a busier team.

A layoff is easy to see. Fewer new hires are easier to miss.

A company can keep its existing team and still offer fewer opportunities to the next person trying to join. That is one reason the question “Is AI taking jobs?” needs more than a count of layoffs.

The clearest warning so far concerns younger workers and weaker hiring. AI use is spreading quickly, but the employment data cannot tell us how many jobs it caused to disappear.

I wanted to understand this by looking at earlier technologies alongside today's numbers. Did faster work eventually create more work? Who benefited, and who struggled?

For anyone running a team, those questions lead to a decision we can actually make: what should happen to the time AI saves?

How fast is AI adoption compared with PCs?

To compare technologies, user counts are a poor starting point. Populations change. What helps is the share of people using each technology, measured from a clear starting date.

Around 21 months after ChatGPT launched, 44.6% of US adults ages 18-64 reported using generative AI. PC use at work or home was 19.7% roughly three years after the IBM PC launched. The AI figure includes a later survey correction. St. Louis Fed adoption research.

How quickly did use spread?

Share of people using it at work or home

PCGenAI
Historical overall adoption survey points by years since the chosen mass-market anchorOverall use (%)02040608002468101214

Hover, tap or focus a point for its year and population.

Source and data

Anchors: IBM PC in 1981, commercial internet in 1995, ChatGPT in 2022. Historical observations come from the September 2024 Fed workbook. AI’s August 2024 overall-use estimate uses the November 2025 revision. No intermediate survey values are invented.

Visible historical survey points
TechnologyYearSource yearUse
PC1984319.7%
PC1989831.1%
PC19931239.9%
GenAI2024244.6%

Open source ↗

Each dot is a survey observation. PC and AI figures cover US adults ages 18-64. AI's first point is about 21 months after launch, rounded to year 2 in the source. The optional all-age internet series covers a different population.

AI reached people quickly. It could arrive through a browser on a computer they already owned, rather than through another hardware purchase.

But opening a tool and replacing someone's work are very different steps. To understand the jobs question, we need to see how much work people use it for.

Using AI is not the same as replacing a job

Someone using AI for one email counts as a user. So does someone using it throughout the day. The adoption rate treats them alike; their working days look very different.

In Q2 2026, 45.2% of employed US adults ages 18-64 reported using AI for work. Across all work hours, including non-users, the survey estimated 6.3% were AI-assisted and workers reported time savings equivalent to 2.2%. RPS survey data via FRED.

How much work does adoption reach?

US Real-Time Population Survey · Q3 2024 to Q2 2026

Uses AI for workUsed it last week
AI work use and previous-week use among employed US adults ages 18-64Employed adults (%)015304560Q3 2024Q1 2025Q3 2025Q2 2026
Q2 202645.2%Uses AI for work39.2%Used it last week
Q3 2024Q2 2026
Source and data

RPS via FRED, captured 4 October 2026. Use rates count employed US adults ages 18-64. Hours use all work hours, including non-users; missing hours observations remain missing. Assisted hours use response-bracket midpoints. Saved hours are a hypothetical comparison reported by respondents.

Last-week use · Assisted hours · Saved hours

All eight survey quarters
QuarterWork useLast weekAssistedSaved
Q3 202433.3%28.2%No dataNo data
Q4 202431.0%26.4%4.1%1.4%
Q1 202532.7%29.3%4.7%1.6%
Q2 202535.1%30.6%4.9%1.8%
Q3 202537.4%32.0%5.7%1.7%
Q4 202540.7%35.2%5.6%2.0%
Q1 202643.4%37.8%6.0%2.2%
Q2 202645.2%39.2%6.3%2.2%

Open source ↗

Switch between people using AI and the share of work hours assisted or reportedly saved. Time savings come from workers' estimates; they are not a payroll saving. Data run through Q2 2026.

So widespread use can coexist with a much smaller change in total working time. Even the hours saved might become more output, extra checking or a shorter backlog.

That still leaves an important question: are the people doing work AI could handle finding fewer jobs?

Are entry-level jobs being hit harder?

Stanford and ADP publish employment data by age and by how much of an occupation's work AI could help perform. That is what AI exposure means here. It describes the tasks, not whether an employer actually uses AI.

To compare the groups, set each one's employment to 100 in November 2022. By August 2026, among ages 22-25, the most exposed group falls to 87.23 and the least exposed rises to 108.10. Employment fell 12.8% in one and grew 8.1% in the other. Stanford and ADP public data.

Follow the employment paths

US employment data from ADP · September 2021 to August 2026

Most exposed (Q5)Least exposed (Q1)
Employment indices for ages 22-25, most exposed occupations compared with least exposed. November 2022 equals 100.Employment index7085100115Sept 2021Nov 2022Jan 2024Jan 2025Aug 2026
Aug 202687.23Most exposed group108.10Comparison group−19.3%Gap vs comparison
Sept 2021Aug 2026
Source and data

Balanced, occupation-matched ADP firm sample; September 2021 to August 2026. Each exported quintile index equals 100 in November 2022. Relative change = 100 × Q5 index ÷ comparison index − 100. These are changing age populations. Quintiles contain equal numbers of occupations, not workers. No confidence intervals or causal attribution are available for our aggregate ratios.

Selected age 22-25: all monthly source indices, November 2022 = 100
MonthQ5Q1Relative change
Sept 202187.8185.25+3.0%
Oct 202189.9287.39+2.9%
Nov 202190.8588.12+3.1%
Dec 202191.7090.28+1.6%
Jan 202292.4389.42+3.4%
Feb 202292.7390.80+2.1%
Mar 202292.3691.40+1.1%
Apr 202293.3194.54−1.3%
May 202293.2494.69−1.5%
Jun 202295.6795.89−0.2%
Jul 202297.8298.02−0.2%
Aug 202297.7597.63+0.1%
Sept 202299.1899.31−0.1%
Oct 202299.6699.65+0.0%
Nov 2022100.00100.000.0%
Dec 202299.80101.20−1.4%
Jan 202399.18101.10−1.9%
Feb 202399.28102.70−3.3%
Mar 202398.84103.40−4.4%
Apr 202398.20104.20−5.8%
May 202397.54104.00−6.2%
Jun 202399.48105.90−6.1%
Jul 202398.88105.70−6.5%
Aug 202398.44104.70−6.0%
Sept 202399.38106.80−6.9%
Oct 202399.05107.00−7.4%
Nov 202398.93108.20−8.6%
Dec 202397.47107.80−9.6%
Jan 202497.31107.80−9.7%
Feb 202497.12107.70−9.8%
Mar 202496.25108.90−11.6%
Apr 202495.38108.60−12.2%
May 202495.64110.10−13.1%
Jun 202495.99109.10−12.0%
Jul 202495.12107.70−11.7%
Aug 202495.64109.60−12.7%
Sept 202495.29108.60−12.3%
Oct 202495.34109.20−12.7%
Nov 202495.54111.60−14.4%
Dec 202494.29110.90−15.0%
Jan 202593.83110.40−15.0%
Feb 202593.17110.70−15.8%
Mar 202592.21109.60−15.9%
Apr 202591.13109.70−16.9%
May 202591.32110.20−17.1%
Jun 202591.43109.00−16.1%
Jul 202591.18108.70−16.1%
Aug 202591.23110.30−17.3%
Sept 202590.82108.10−16.0%
Oct 202591.73109.60−16.3%
Nov 202591.48109.70−16.6%
Dec 202590.57109.30−17.1%
Jan 202690.60110.00−17.6%
Feb 202689.83109.40−17.9%
Mar 202688.77109.30−18.8%
Apr 202687.85109.00−19.4%
May 202687.56109.30−19.9%
Jun 202688.03109.00−19.2%
Jul 202688.49109.00−18.8%
Aug 202687.23108.10−19.3%

Open source ↗

Start with ages 22-25, then try another age group or choose “Compare ages”. Each group's November 2022 employment equals 100. Q5 means the most exposed fifth of occupations; Q1 means the least exposed. These are sampled US firms, not the whole economy.

Employment in the most exposed group is 19.3% lower than if it had kept pace with the comparison group. Here is the calculation:

Comparing the two employment paths

Most exposed ÷ least exposed: 87.23 ÷ 108.10 = 0.8069

Relative gap: (0.8069 − 1) × 100 = −19.31%

That 19.3% is a comparison between groups. It does not mean AI eliminated 19.3% of these jobs.

The relative gap is 8.6% for ages 26-30 and much smaller for older workers. Age is only a rough guide to career stage, but the difference is hard to ignore.

It also fits a concern that layoffs alone would miss: companies may need fewer new recruits even when they keep experienced staff. To see whether that is happening, we need evidence beyond this one payroll sample.

Is AI causing the change in hiring?

A US Census study also finds weaker hiring among ages 22-24 in highly exposed industries. They estimate employment for this age group fell about 12% from late 2022 through Q2 2025, after allowing for other factors. It uses different records from ADP, so the hiring concern shows up in another dataset.

A Danish firm study looks at actual AI adopters. By late 2025, their employment is about 11% below their earlier growth path relative to non-adopters. Smaller firms and reduced recruitment drive the difference. Those firms could still be growing, just hiring less than their earlier trend suggested.

That makes weaker hiring a concern worth watching. It does not settle the cause: a company choosing AI may also be changing its hiring plans for other reasons.

Even the starting date changes what the numbers tell us. In our youngest-worker comparison, moving it from November 2022 to November 2023 reduces the gap from 19.3% to 11.7%.

Change the starting date

Ages 22-25 · most exposed jobs compared with least exposed

Baseline sensitivity, ages 22-25, Q5 versus Q1-25%-20%-15%-10%-5%0%Sept 2021May 2022Nov 2022Jan 2023Nov 2023
Nov 2022 to Aug 2026−19.3%Relative employment change

Hover, tap or focus a point to inspect its comparison period.

Source and data

For each baseline b, relative change = 100 × (Q5 in August 2026 ÷ Q5 at b) ÷ (Q1 in August 2026 ÷ Q1 at b) − 100. Every row measures a different period. These are not statistical confidence bounds.

All five baseline calculations
BaselineRelative change to Aug 2026
Sept 2021−21.7%
May 2022−18.1%
Nov 2022−19.3%
Jan 2023−17.7%
Nov 2023−11.7%

Open source ↗

Choose a starting date to see how the gap changes. Every comparison ends in August 2026 and uses ages 22-25. Changing the start changes the period you are measuring.

AI arrived during a changing job market. Research using career histories and unemployment claims finds problems in exposed occupations before ChatGPT. New York Fed researchers also link remote work to difficulties training and hiring less experienced workers.

And widespread use does not always produce a measurable employment change straight away. An earlier Danish chatbot study, following workers through December 2024, finds no detectable average change in earnings or recorded hours, ruling out effects larger than roughly 2% in its setting.

There is a hiring problem to take seriously. Blaming the whole gap on AI would hide the other things we may need to fix.

To understand why faster work and worse job prospects can coexist, it helps to look further back.

What past automation tells us about AI and jobs

Earlier technologies changed both the amount of work and who got to do it. The results were often good for the wider economy and painful for particular workers.

What happened in earlier waves of automation?

Four cases showing what changed for workers

Mechanised textilesMore output, difficult years for workers

British cotton production grew, but some workers went years without wage gains and lost control over how they worked. A richer economy did not mean every worker benefited.

Acemoglu and Johnson, historical review ↗
The 1966 automation debateIndividual job losses can happen without mass unemployment

The US commission found that technology could put individual workers out of a job without being the main cause of overall unemployment. That was its finding for the period it studied.

Federal commission, printed page 109 ↗
Computer eraRoutine office work became a smaller share of employment

Clerical work fell from 19.4% of employment in 1980 to 15.8% in 2017, a drop of 3.6 percentage points. That measures its share of all jobs. Research explains how computers could replace routine tasks, although other changes also shaped the job market.

BLS-hosted occupational-share report ↗

Autor, Levy and Murnane, task research ↗

US robots, 1990-2007Employment and wages fell in more exposed areas

Acemoglu and Restrepo estimate that one additional industrial robot per 1,000 workers reduced local employment-to-population by 0.39 percentage points and wages by 0.77%. The smaller implied aggregate effects are 0.2 points and 0.42%, accounting for benefits elsewhere. Those estimates concern robots in US areas, so they cannot predict the size of an AI jobs effect.

Acemoglu and Restrepo, published study ↗
Open a case to see what changed and who lost ground. These studies use different measures and periods, so their results should not be read as a league table of technologies.

Mechanised textile production expanded output while some workers faced years of weak wages and less control over their work. Computers changed demand for routine clerical tasks. Industrial robots reduced employment and wages in more exposed US areas.

New work appearing elsewhere did not make the transition easy for someone whose skills or location no longer matched it.

That is why the history matters here. A productivity gain can benefit the business while the worker loses an opportunity. Looking only at total employment, or only at the company's output, misses part of the story.

History also leaves us with a useful question for today: if work gets cheaper and faster, will there be more of it?

Does higher AI productivity mean fewer jobs?

In a study of 5,172 customer-support agents, AI assistance increased issues resolved per hour by about 15%. Less experienced workers benefited more. Generative AI at Work.

So AI can help a newer worker do the job better. Whether the company needs more workers is a separate decision about workload.

Here is a fictional example using 15% as the starting assumption. A team needs 100 hours to deliver 100 units of work. After the improvement, it can deliver 1.15 units per hour.

What happens when the work gets faster?

Change the assumptions and compare the required hours

Fictional example · starting point: 100 units in 100 hours

Required labour hours under adjustable productivity and demand assumptionsBaseline100.0 hNew requirement87.0 h050100150
87.0 hRequired hours−13.0%Change from 100 hours

100 units ÷ 1.15 units per hour = 87.0 hours

Calculation and assumptions

Required hours = demand ÷ (1 + productivity improvement ÷ 100). The starting rate is one unit per hour. Quality, work mix and other inputs stay constant; review effort is included in the assumed net productivity rate. Staffing, wages, scheduling and cash expenditure are outside this simplified model. The 15% starting value illustrates, rather than reproduces, the customer-support study.

Fictional example. Change productivity or demand to see the hours required. Work quality and other inputs stay constant. The result measures hours of work, not a headcount or cash-saving forecast.

At the same demand, the work needs 87.0 hours. If demand rises to 115 units, it still needs 100 hours. At 130 units, it needs 113.0 hours.

The same productivity gain produces three different outcomes.

This is the decision behind the AI jobs question inside a company. The saved time could mean fewer hires. It could also mean serving more customers, clearing overdue work or reducing overtime.

The demonstration tells you the work can be faster. The workload and the company's choices determine what happens next.

When does time saved become a real business benefit?Follow the saved hours into capacity, output and spending before calling them cash savings.

What should leaders check before cutting headcount?

If you are introducing AI into a team, follow the result beyond the number of people using it.

Question What to measure
Did we finish more useful work? Completed work, errors, rework and review effort
Did it take less total effort? Paid hours, including checking and support
What did we do with the time? More output, shorter queues, less overtime or work moved elsewhere
Who gained or lost an opportunity? Hiring, departures and moves into other roles
How will new people learn? Supervised tasks and opportunities to build experience

The last question belongs in the plan. If AI takes over the tasks juniors used to learn on, someone needs to decide how they will build that experience instead.

AI may change a team through fewer hires long before it produces a visible round of layoffs. And faster work may increase demand for people rather than reduce it.

Before celebrating the time saved, decide what it is for.

Sources and calculation notes

The charts use data saved on 4 October 2026. Employment data run through August 2026; the work-use survey runs through Q2 2026. Open “Source and data” beside a chart for the underlying values and methods.

Next5 Whys example: finding a cause you can test

Working on something like this?

I work with operations and transformation teams on operational excellence, digital transformation programs, supply chains and industrial AI. If this sounds like your line, your program or your problem, I’d be glad to compare notes.

Abolfazl Shirkavand