The Cost of AI "Tax Revenue losses & Cost of Universal Income"

Study examines projected AI job losses and estimates the tax revenue losses incurred by governments worldwide. The report further explores the implementation costs, both per person and for the system, of a Universal Income scheme aimed at supporting individuals unable to rejoin the workforce.

  • The countries with the highest number of jobs at risk from AI are the United States with just over 12 million jobs very likely to be lost, followed by Japan with 5.8 million and Mexico with 5 million lost jobs.
  • The countries that will experience the largest fiscal income decrease are the United States with a loss of $910 billion CAD, followed by Germany and Japan with a decrease of $205 billion CAD.
  • Switzerland would have the highest cost per capita for Universal Income among OECD countries, at an estimated $46,027 CAD per person per year, not including additional costs for children and dependents.
  • The United States would have the most expensive Universal Income program, estimated at over $910 billion CAD per year, followed by Germany and Japan with an estimated yearly cost of $205 billion CAD.*

*Total Cost of Universal Income is only for those who lost their jobs due to AI, does not include others currently not working of that my stop working.

At ThePayStubs.com, we’ve been studying the impact of new Ai technology on our operations. As we’ve seen remarkable efficiency gains, it’s become evident that work processes are changing, with new technologies taking over millions of jobs. To understand the implications for our industry and society, we partnered with Researchers of Urbanity Impact to investigate how this trend will affect people’s paystubs.

According to Dany Moussa, CEO of FinancialDocs, the company behind ThePayStubs.com, while AI will generate new startups and jobs, it’s also expected to cause significant job losses that won’t be easily replaced. This calls for innovative approaches from governments as this digital revolution will fundamentally transforms industries and society.

Our study focuses on three main areas. Firstly, we estimate the number of jobs at risk in each country, considering the potential for companies to reduce workforces through AI-based technologies. Secondly, we examine the cost of implementing a Universal Income Scheme to support those unable to rejoin the workforce. Lastly, we analyze the tax revenue losses governments will face due to job losses and the necessary increase in corporate tax to compensate for the decreased tax income and fund the universal salary.

In estimating jobs at risk, we evaluate productivity gains from Ai technologies and their impact on core tasks for each occupation. Our analysis takes into account productivity increases, redundancy percentages, and occupation/industry matrices for each country.

Since the 2016 failed vote attempt in Switzerland, Universal Income is one of the leading options to deal with the rise of AI and automation and its effect on the Job market. The average cost of universal income per person is calculated based on the ILO’s recommendation of 50% of the median disposable income in rich countries.

Lastly, considering the future of taxation, we focus on the use of Ai advancements to reduce workforces and its impact on corporate tax revenues. We also present the required increase in corporate tax revenues in each country to cover the potential cost to the system. The estimated lost tax revenues due to unemployment per person reflect the annual value of tax revenues lost when a worker becomes redundant, assuming they don’t find new employment. This includes income taxes, payroll taxes, and compulsory social contributions.

Legend

The index is default ranked by the final column, ordered from highest to lowest. Each individual column can be filtered, and the full methodology explaining how each factor was evaluated can be found underneath the table.

Global Jobs at Risk

Jobs-at-risk, by sector (thousands of persons) Potential cost to system Future of taxation
Rank Country population gdp employed goods services services tax tax revenue income support gain-eur gain-per
1 United States 333.3 million CA$100,935 147,886 th. 90.7 th. 1,945.5 th. 10,901.4 th. 12,856.5 th. CA$35,489 CA$43,359 CA$78,848 CA$1,013.7 B 11.13% 127.50%
2 Japan 125.5 million CA$61,819 67,124 th. 88.2 th. 1,221.3 th. 4,675.2 th. 5,886.8 th. CA$19,256 CA$17,344 CA$36,600 CA$215.5 B 9.85% 76.55%
3 Mexico 129.0 million CA$27,667 55,166 th. 286.4 th. 1,112.6 th. 3,699.2 th. 5,010.0 th. CA$1,928 CA$1,963 CA$3,891 CA$19.5 B 6.79% 33.11%
4 Germany 83.2 million CA$84,790 41,500 th. 22.3 th. 883.6 th. 3,192.3 th. 4,066.3 th. CA$34,575 CA$18,440 CA$53,014 CA$215.6 B 9.66% 162.37%
5 United Kingdom 67.4 million CA$73,200 32,407 th. 10.6 th. 416.2 th. 2,804.5 th. 3,223.6 th. CA$21,151 CA$19,839 CA$40,990 CA$132.1 B 9.34% 118.04%
6 France 67.7 million CA$73,624 27,728 th. 30.5 th. 413.6 th. 2,275.9 th. 2,690.9 th. CA$36,948 CA$16,046 CA$52,994 CA$142.6 B 8.05% 143.54%
7 South Korea 51.7 million CA$67,277 27,273 th. 64.4 th. 524.8 th. 2,061.4 th. 2,632.5 th. CA$10,767 CA$11,559 CA$22,326 CA$58.8 B 8.19% 63.94%
8 Turkey 84.1 million CA$46,192 28,827 th. 209.0 th. 608.1 th. 1,688.5 th. 2,481.2 th. CA$3,598 CA$4,408 CA$8,006 CA$19.9 B 8.02% 74.51%
9 Italy 59.1 million CA$69,344 22,554 th. 37.0 th. 480.2 th. 1,662.3 th. 2,136.9 th. CA$30,539 CA$14,164 CA$44,703 CA$95.5 B 7.92% 178.71%
10 Colombia 51.6 million CA$26,614 20,392 th. 136.2 th. 337.4 th. 1,498.3 th. 1,930.9 th. CA$728 CA$4,466 CA$5,194 CA$10.0 B 12.34% 52.15%
11 Spain 47.3 million CA$61,792 19,774 th. 32.7 th. 314.0 th. 1,606.4 th. 1,923.9 th. CA$21,418 CA$12,159 CA$33,577 CA$64.6 B 8.91% 126.83%
12 Poland 38.2 million CA$57,639 16,656 th. 58.1 th. 394.9 th. 1,074.7 th. 1,506.5 th. CA$10,241 CA$7,398 CA$17,638 CA$26.6 B 8.02% 112.55%
13 Canada 38.2 million CA$75,354 18,865 th. 2.5 th. 229.9 th. 1,468.4 th. 1,471.2 th. CA$24,670 CA$20,311 CA$44,981 CA$66.2 B 7.55% 64.29%
14 Australia 25.7 million CA$90,811 13,065 th. 12.7 th. 184.9 th. 1,132.2 th. 1,329.8 th. CA$19,777 CA$23,678 CA$43,455 CA$57.8 B 10.27% 54.46%
15 Netherlands 17.5 million CA$93,805 9,282 th. 7.6 th. 100.9 th. 826.9 th. 931.0 th. CA$31,465 CA$17,722 CA$49,187 CA$45.8 B 8.59% 87.41%
16 Chile 19.7 million CA$40,006 8,303 th. 23.6 th. 146.8 th. 645.0 th. 801.3 th. CA$1,805 CA$6,564 CA$8,369 CA$6.7 B 7.19% 42.14%
17 Sweden 10.4 million CA$86,195 5,120 th. 4.1 th. 68.7 th. 442.1 th. 512.4 th. CA$40,410 CA$15,570 CA$55,980 CA$28.7 B 7.99% 113.23%
18 Belgium 11.6 million CA$87,000 4,854 th. 1.9 th. 73.4 th. 408.9 th. 479.9 th. CA$39,460 CA$17,991 CA$57,451 CA$27.6 B 8.25% 91.98%
19 Czech Republic 10.5 million CA$66,034 5,213 th. 5.5 th. 146.0 th. 330.0 th. 474.2 th. CA$13,993 CA$9,972 CA$23,965 CA$11.4 B 8.99% 94.15%
20 Portugal 10.3 million CA$55,965 4,812 th. 5.7 th. 92.8 th. 366.8 th. 458.9 th. CA$12,127 CA$10,815 CA$22,943 CA$10.5 B 8.88% 130.14%
21 Switzerland 8.7 million CA$108,905 4,684 th. 4.6 th. 72.5 th. 379.5 th. 453.0 th. CA$35,336 CA$45,636 CA$80,972 CA$36.7 B 12.17% 113.35%
22 Hungary 9.7 million CA$56,396 4,642 th. 8.7 th. 114.3 th. 321.8 th. 439.0 th. CA$8,515 CA$6,139 CA$14,654 CA$6.4 B 7.82% 230.98%
23 Austria 9.0 million CA$90,762 4,306 th. 6.6 th. 89.5 th. 329.6 th. 423.3 th. CA$41,061 CA$18,868 CA$59,928 CA$25.4 B 9.23% 144.89%
24 Greece 10.7 million CA$49,188 3,928 th. 19.5 th. 50.4 th. 321.1 th. 386.4 th. CA$12,355 CA$8,122 CA$20,477 CA$7.9 B 7.08% 259.35%
25 Israel 9.4 million CA$65,019 3,957 th. 1.3 th. 47.0 th. 330.9 th. 375.6 th. CA$21,251 CA$21,667 CA$42,918 CA$16.1 B 7.72% 69.46%
26 Denmark 5.9 million CA$99,087 2,900 th. 2.7 th. 43.6 th. 240.6 th. 285.1 th. CA$45,186 CA$18,704 CA$63,890 CA$18.2 B 7.36% 92.18%
27 Norway 5.4 million CA$125,609 2,798 th. 2.6 th. 40.1 th. 224.5 th. 265.2 th. CA$46,745 CA$19,440 CA$66,185 CA$17.6 B 6.50% 28.22%
28 Ireland 5.0 million CA$169,648 2,389 th. 4.3 th. 37.3 th. 205.8 th. 245.7 th. CA$27,646 CA$18,701 CA$46,348 CA$11.4 B 8.09% 47.44%
29 Finland 5.5 million CA$79,056 2,573 th. 4.1 th. 42.7 th. 199.7 th. 244.7 th. CA$37,986 CA$17,488 CA$55,474 CA$13.6 B 8.01% 127.90%
30 Slovakia 5.4 million CA$49,382 2,561 th. 2.8 th. 71.8 th. 167.9 th. 240.2 th. CA$11,655 CA$8,455 CA$20,110 CA$4.8 B 8.86% 104.03%
31 New Zealand 5.1 million CA$69,054 2,790 th. 4.1 th. 33.3 th. 179.3 th. 216.7 th. CA$16,638 CA$16,306 CA$32,944 CA$7.1 B 6.27% 43.41%
32 Costa Rica 5.2 million CA$32,364 2,040 th. 12.6 th. 32.5 th. 151.9 th. 192.2 th. CA$4,617 CA$4,499 CA$9,115 CA$1.8 B 8.47% 82.56%
33 Lithuania 2.8 million CA$65,080 1,369 th. 3.3 th. 28.2 th. 103.6 th. 133.6 th. CA$11,436 CA$10,139 CA$21,575 CA$2.9 B 10.11% 155.21%
34 Slovenia 2.1 million CA$67,034 972 th. 1.8 th. 23.2 th. 68.1 th. 91.6 th. CA$18,429 CA$10,405 CA$28,834 CA$2.6 B 8.62% 165.92%
35 Latvia 1.9 million CA$53,779 870 th. 2.5 th. 16.3 th. 65.6 th. 83.6 th. CA$9,610 CA$7,959 CA$17,569 CA$1.5 B 9.15% 369.04%
36 Estonia 1.3 million CA$63,079 654 th. 0.7 th. 14.9 th. 49.4 th. 64.6 th. CA$13,787 CA$9,779 CA$23,566 CA$1.5 B 9.19% 191.42%

Methodology

Our study sets out to evaluate the prospective influence of Large Language Model (LLM) based chatbot technologies on labour markets in OECD nations, and the subsequent effects on taxation structures. This exploration is articulated through three key dimensions: Jobs-at-risk, the potential cost to the system, and the future of taxation.

Jobs-at-risk

By "Job-at-risk", we do not consider complete replacement of an occupation by an AI worker, but rather the opportunity for companies to trim workforces as a result of productivity increases resulting from the use of LLM-based chatbot technologies.

We consider productivity gains from LLM-based chatbot technologies with the following characteristics:

  • ChatGPT4 level capacity for language understanding and reasoning; and the limited capacity for creative problem solving and complex task resolution.
  • Access to the internet and to internal company documents and databases

We do not consider the following developments that may be coming to the field:

  • Further advancements in robotics based on LLM technology advancements.
  • Shifts to telemetry; that is, if the occupation today requires in-person contact, the model assumes this stays the same.
  • Development of domain specific AI systems that combine LLM technology with traditional AI and Machine Learning specifically developed to allow higher-order creative problem solving.

The model is driven by an evaluation of productivity gains on the tasks core to each occupation, as defined by the occupation database ONET, given these assumptions. The productivity gains for the tasks were averaged for each occupation, weighted by the importance of the task per the ONET database, giving an aggregate productivity increase; and then converted to a redundancy percentage.

The final jobs at risk was estimated based on occupation/industry matrices for each country. These matrixes were estimated using the US occupation/industry mix as a model; ILO estimated breakdowns of employment by industry were multiplied with the equivalent US occupation by industry matrix achieving an estimated occupation/industry matrix for each OECD country. The final total number of employed persons per occupation per industry was multiplied by the redundancy percentage for each occupation.

Potential cost to system

To estimate the potential cost to the tax system as a result of redundancies, we combined both lost tax revenues due to loss of employment with the cost of supporting redundant workers.

As Universal Basic Income has been proposed as a solution to the existential threat of AI on labour markets, we took the approach of using the Universal Basic Income regime proposed by ILO to estimate the cost of supporting redundant workers.

Future of taxation

In the scenario considered in this study is limited to the use of LLM advancements to trim workforces–it ignores the potential for higher quality services and new services and industries altogether–the benefit of LLM is solely concentrated to the bottom line of corporations. Therefore, we present the required increase in corporate tax revenues in each country should tax systems *only* seek to cover the potential cost to the system through corporate tax increases. This increase is compared to the increase in overall tax revenues should the potential cost to the system be carried by tax revenue increases across the board.

Column notes

Population

The 2022 population of the country, in millions of persons.

Source: OECD

GDP/Capita (USD)

The 2022 Gross domestic product per capita, in 2022 exchange rate US Dollars.

Source: OECD

Employed Persons

The total number of employed persons (full-time or part-time) in the country in 2022, in thousands of persons.

Source: OECD

Jobs-at-risk

The total number of jobs at risk of being made redundant due to productivity increases due to LLM-based chatbot technologies, in thousands of persons. Estimates are provided on a sector basis, per the North American Industry Classification Standard.

  • Agriculture: NAICS code 1
  • Industry: NAICS codes 2-3
  • Services: NAICS codes 4-8

Sources: ILO, ONET, ChatGPT (See methodology notes above)

Potential cost to system

Estimated lost tax revenues due to unemployment, per person

The annual value of lost tax revenues for each worker due to redundancy, assuming new employment is not found. Includes income taxes, payroll taxes and compulsory social contributions.

Calculated as total tax 2022 tax revenues from income, payroll and social contributions divided by *Employed Persons*.

Sources: OECD

Estimated average cost of universal income, per person

Per the ILO proposal of a minimum viable universal income, the base universal income in rich countries should be set to 50% of the median disposable income in the country. Using available OECD data, the universal income is calculated as 50% of the average disposable household income per capita.

Sources: OECD

Estimated total cost to system, per person

The sum of *Estimated average cost of universal income, per person* and *Estimated lost tax revenues due to unemployment, per person*.

Total potential cost to system

The product of the *Estimated total cost to system, per person* and total *Jobs-at-risk*, giving the total annual potential cost to the system under the assumption that:

  • Companies use productivity increases only to reduce total headcount through redundancies
  • Redundant workers are not able to find new employment
  • AI displaced workers are provided with the ILO proposed Universal Basic Income to endure redundancy

Future of taxation

Required Tax Revenue Growth to cover cost to system

The % increase in required total tax revenues in order to absorb *Total potential cost to system*, assuming:

  • constant government expenses

Sources: OECD

Required Corporate Tax Increase to cover cost to system

The % increase in required total corporate revenues in order to absorb *Total potential cost to system*, assuming:

  • constant government expenses
  • *Total potential cost to system* is only absorbed through increases in corporate taxes.

Sources: OECD