On question about how artificial intelligence will affect jobs and productivity, the honest answer is that the actual empirical evidence is pretty thin. In part, this is because the new AI tools have arrived so recently, and are evolving so quickly, that don’t yet have much experience with their effects–or much data to separate the effects of AI from other changes in the economy. Eric Fruits and Kristian Stout offer an overview of what the emerging evidence has to say in “AI, Productivity, and Labor Markets: A Review of the Empirical Evidence” (International Center for Law & Economics Issue Brief, February 5, 2026). For those just getting up to speed on the subject, one especially useful part of the article is that the reference list is annotated–that is, there’s a brief discussion of what angle is taken by each of the references, with weblinks as possible.
The authors emphasize that most of the predictions about effects of AI are essentially driven by underlying assumptions: what share of tasks in in what share of jobs might be affected by AI; to what extent will AI complement workers and shift the tasks that they do in a given day, or replace them; how quickly will AI diffuse across varying sectors of the economy; how quickly will complementary investments be made to support the effects of AI (in everything from electric power generation to education to robotics); if AI requires large-scale organizational redesign, how long does that take; will AI expand overall output or make the distribution of income more unequal; and so on and so on. Choose your assumptions, and you can choose your outcome. As the authors point out, for example, its also possible to have effects that start in one direction and then swerve to another direction: for example, it’s straightforward to build a “J-curve” theory in which the adjustment to a new technology first has a negative effect during a transition period as firms face the cost of making adjustments, but then later has a very positive effect.
However, some themes are begining to emerge from actual research on the use of AI in different settings, like call centers, accountants, law students doing complex legal tasks, software developers, professional translators, randomized experiments with groups given certain tasks to perform, and others. Here are some themes that emerge:
First, such studies consistently show substantial gains in specific areas of both quantity and quality of output.
Second, the gains can be highly variable, even on tasks that may appear similar. For example, a given AI tool might be enormously helpful and reliable for certain tasks or up to a certain level of complexity–but then become highly unreliable beyond that point. Those using the tool may see that it works well in lots of cases, and then start trying to use it everywhere–even where it doesn’t work well. Thus, several of the studies emphasize the need for “verification protocols” to double-check quality of output and to provide feedback to users.
Third, another theme across these studies is “skill compression,” as the authors note: “Across settings, micro-level evidence points to skill compression. AI tools disproportionately boost output among lower-performing workers, narrowing performance gaps within job categories. This pattern recurs across productivity studies and carries distributional implications: AI can reduce inequality within occupations, even as it reshapes demand for certain entry-level roles.” In other words, access to AI tools may have the biggest benefit for the productivity of workers with less experience or skill, and smaller benefits for workers who already have greater skills. (This pattern may also help to explain some evidence that the number of jobs in sectors exposed to AI for young workers may have fallen: when AI boosts productivity of these younger workers, firms end up hiring fewer of them.)
Fourth, the studies of AI and jobs do not involve a random selection of jobs. Instead, the studies tend to focus on jobs where it seems intuitively plausible that the gains might be substantial. Thus, it would be clearly incorrect to extrapolate the patterns from individual studies across the economy as a whole.
Fifth, the new AI tools seem to be leading to a surge of new companies. Moreover, these companies are often smaller in terms of employment than average start-ups in the past. authors write: “AI substitutes for managerial, operational, and technical tasks that previously required additional hires or cofounders. By lowering the minimum viable team size, AI reduces entry costs, increases the number of entrants, and strengthens downstream competition.” The emerging pattern here may be large and concentrated “upstream” companies doing the foundational research on AI and owning the actual computing power, w while the new startups may be smaller competitive “downstream” users of this technology. Of course, the share of these start-ups that eventually succeed and grow it not yet clear.
Sixth, the growth of the new AI companies depend on other factors in the economy: availability of finance, a non-hostile and non-fragmented regulatory environment, a supply of science and engineering workers, capacity for training new workers, capacity for computing power and supporting infrastructure (like electricity and telecommunications).
I think we don’t yet have a clear sense of what these AI tools will actually be in the medium term of, say, 5-10 years. (See above discussion of how assumptions will determine predictions.) But I strongly suspect that no high-income country, if it wants to remain a high-income country, is going to be able to a to sidestep and avoid the new AI technologies. It’s worth remembering that in the long-run, the average standard of living in a society rises when the average productivity per worker rises. In turn, greater productivity pretty much always requires change, sometimes disruptive change.














